3500 User Guide ver22 User Guide ver22.pdfTelephone +1 512.339.8188 Facsimile (FAX) +1 512.339.1299...

CALLER ID TELEPHONE PRODUCTION TESTER

MODEL 3500

User’s Manual Revision 2.2

January 2002

Copyright 2002, Rochelle Communications, Inc. All Rights Reserved.

This document contains information that is the property of Rochelle Communications, Inc. This document may not be copied, reproduced, reduced to any electronic medium or machine readable form, or otherwise duplicated, and the information herein may not be used, disseminated or otherwise disclosed, except with the prior written consent of Rochelle Communications, Inc.

Part Number 3750108

Table of Contents

Safety Instructions.............................................................1

Warranty Information.........................................................2

Customer Service..............................................................4

Product Description ..........................................................5

Getting Started ..................................................................14

Operation ..........................................................................16

Application Note................................................................20

Maintenance......................................................................21

Specifications....................................................................22

FCC Information................................................................23

DSP/104 User Guide.........................................................25

3500 Menu Software .........................................................33

Remote Control .................................................................37

Script Language Reference Manual .................................39

Sample Front Panel Scripts ..............................................73

Example Scripts ...............................................................129


MODEL 3500

Caller ID Telephone Production Tester Safety Instructions

Page 1

The following safety instructions apply to the Model 3500 Caller ID Telephone Production Tester:

1. Read and follow all warning notices and instructions marked on the product or packaging, or included in the manual.

2. The Model 3500 should not be operated in environments where the ambient temperature exceeds 50° C (122° F). Care should also be given to ensure that adequate air circulation is available.

3. The Model 3500 is designed for indoor use only. Temperature and other outdoor conditions can damage the system.

4. Should the case need to be opened for any reason, a suitable grounding device, such as a heel or foot grounder or a wrist strap, must be utilized. This will control the risk of damaging components through Electro-Static Discharge (ESD).

5. Do not attempt to service this product yourself. Refer all servicing to Rochelle Communications or an Authorized Rochelle Distributor, Dealer, or Agent (see service information, pp. 2-3).

6. Use only the included power adapter. Use of other power adapters voids the product warranty and can damage the system.

7. Equipment grounding is vital to ensure safe operation of the Model 3500. Prior to connecting a power cord to the power adapter, use an outlet tester or a voltmeter to check the AC receptacle for the presence of earth ground. If the receptacle is not properly grounded, do not connect the power adapter until a qualified electrician has corrected the problem.

Important Safety Instructions

Caller ID Telephone Production Tester Customer Service

Page 2

• Rochelle Communications, Inc. warrants that the Model 3500 Caller ID Telephone Production Tester will be free from defects in material and workmanship under normal installation for a period of one (1) year from the date of original purchase.

• The obligation of Rochelle, under this warranty, shall be limited to repair or replacement (at our option) during the warranty period. Any part which proves to be defective in material workmanship under normal installation, use, or service, is covered under the warranty, provided the product is returned to an Authorized Rochelle Distributor, Dealer, or Agent. TRANSPORTATION OR SHIPPING CHARGES ARE NOT THE RESPONSIBILITY OF ROCHELLE.

• The above warranty shall not apply to defects resulting from: misuse, abuse, neglect, accident, destruction, alteration of the serial number, operation outside of the environmental specifications for the product, improper electrical voltages or currents, unauthorized modifications, and repair, alteration, or maintenance by any person other than Rochelle Authorized Distributors, Dealers, or Agents.

• This warranty is in lieu of all other expressed warranties, obligations, or liabilities. Rochelle makes no expressed or implied warranties regarding the quality, merchantability, or fitness for a particular purpose beyond those that appear in the applicable manual.

• In no event will Rochelle be liable for any special, incidental, consequential or punitive damages for breach of this warranty, expressed or implied, including, but not limited to, loss of profits or damages to business or business relations.

• To obtain warranty service, products must be returned to Rochelle or to an Authorized Rochelle Distributor, Dealer, or Agent. All product returns require a Return Material Authorization (RMA).

• Customer shall prepay shipping charges for products returned to Rochelle for warranty service. Rochelle shall pay shipping charges associated with the return of the serviced products to the customer. However, Rochelle cannot assume liability for duties and taxes for products returned to customers located outside the USA.

Rochelle Communications, Inc. Attn: Product Service Department 8906 Wall Street, Suite 205 Austin, Texas 78754

Product Warranty

Address for Service

Warranty Service


Page 3

• Rochelle will either repair or, at its option, replace a defective product not covered under warranty.

• Repair charges are available from the Product Service Department upon request. Out-of-Warranty repair charges are based upon the prices in effect at the time of the return.

• The warranty on a serviced product is 90 days measured from the date of service.

When contacting Rochelle Customer Service, make sure to have the following information available:

• Product name and model

• Front panel firmware version

• Software release

• BIOS version

• Operating system and version

• User-installed software and any other modifications

• Description of the problem

NOTE The front panel firmware version and the software release can be displayed on the LCD using the DisplayVersion script command. A script using this command can be launched by pressing the ‘TEST 2’ button with DOS mode selected. BIOS and operating system information are displayed during the booting process on a connected VGA monitor.

Telephone +1 512.339.8188

Facsimile (FAX) +1 512.339.1299

e-mail [email protected]

Telephone +1 512.339.8188

Contact Info Customer Service

Contact Info Product News Software Upgrades

Rochelle Customer Service

Out of Warranty Service


Page 4

Facsimile (FAX) +1 512.339.1299

e-mail [email protected]

Internet http://www.rochelle.com

The Caller ID Telephone Production Tester, Model 3500, is a stand-alone, portable tester designed to test virtually any telecommunications device in a production environment. The motherboard includes the electronics of an Analog Services Telephone Line Simulator (ASTLS), Model 3410 and an x86 PC subsystem. Easy operation is provided through a simple, user-friendly interface which includes an LCD, mode selector and test launch buttons, pass/fail counters, and testing ports. Test files such as scripts developed using the Rochelle Script Language (RSL), DOS batch files, or programs (.exe) developed using C or Basic are loaded into the system and launched with the push of a button.

1. Display (LCD) The 2 line x 20 character Vacuum Fluorescent Display presents status messages to indicate events such as system self test, mode selection, and test launch and completion. There are also script commands that enable script-specific messages to be displayed on the LCD.

2. Test Launch Buttons The test launch buttons, labeled ‘TEST 1’ through ‘TEST 8’ are used to launch the corresponding test based on the selected mode.

Product Description

5

6 7

4

3

1

2

User Interface (Front Panel)

Caller ID Telephone Production Tester Product Description

Page 5

3. Test Ports Two RJ-11 ports and 1 set of banana jacks (A represents ‘tip’ and B represents ‘ring’) are included on the front panel for connecting devices under test.

4. Pass/Fail Buttons and Counters Upon completion of a test, the user can press either the pass or fail button to log the test results; the corresponding counter increments with each press of the button.

5. Floppy Drive (B:) The 3.5” floppy drive is used to load test files into the system. Test files may be scripts developed using the Rochelle Script Language, executables, or batch files.

NOTE A pre-loaded batch file, launched by pressing the ‘TEST 4’ button with DOS mode selected, copies the script files from a floppy disk to the appropriate functional directory on the C: drive (see Loading Test Files, p. 16).

6. Mode Selector Buttons The mode selector buttons, labeled ‘MODE 1’, ‘MODE 2‘, ‘MODE 3’, and ‘DOS’ are used to select the active mode. The different modes provide a convenient way of organizing test files. For example, tests related to a feature phone may be launched from MODE 1, while tests related to a Caller ID display unit may be launched from MODE 2.

7. Power Button The power button turns the system on and off.

NOTE See the Getting Started section for important information on connecting the power adapter and booting the system.


Page 6

8. Reset (not supported on newer models) The reset button may be used to warm boot the system, similar to simultaneously pressing <CTRL>, <ALT>, and <DEL> on a PC keyboard.

9. Power Input The included power adapter is plugged into the connector labeled ‘POWER’ on the rear panel.

NOTE See the Getting Started section for important information on connecting the power adapter and booting the system.

10. VGA Output The connector labeled ‘VGA’ is a standard 15-pin VGA output. Any VGA or SVGA monitor may be plugged into this connector.

11. LPT 1 (Parallel I/O) The connector labeled ‘LPT 1’ is a standard 25-pin parallel port for use in connecting a printer to the system.

8 9 10 11 14 13 12

I/O and Reset (Rear Panel)


Page 7

12. COM 1 (Serial I/O) The connector labeled ‘COM 1’ is a standard 9-pin serial port set by default as communications port 1 (COM 1). Various peripheral devices may be connected to this port.

NOTE COM 2 is used by the PC subsystem to communicate to the front panel.

13. Audio In and Out Two 1/8” jacks, labeled ‘AUDIO IN’ and ‘OUT’, are provided for connecting various audio devices to either inject or monitor audio.

14. Keyboard Input The connector labeled ‘KEYBD’ is a standard 6-pin PS/2 keyboard input. Any PS/2 style keyboard may be plugged into this connector.

The 3500 includes a PC/104 connector which may be used to expand the capabilities of the system. PC/104 devices such as: modems, serial and parallel I/O, analog and digital I/O (data acquisition), Ethernet, video, and disk controllers, audio, and many others are available from several third-party vendors. For more information on PC/104, refer to the/PC 104 Consortium web page at http://www.pc104.org.

The 3500 is capable of accommodating up to two (2) 8-bit or 16-bit PC/104 cards within the case. Special connectors are available to extend contacts for two cards through the opening on the rear panel

PC/104 Connector


Page 8

The preinstalled operating system on the 3500 is a limited version of Caldera DR-DOS v. 7.02 Release 1 (http://www.caldera.com). A subset of the standard DOS commands and utilities is available as listed below.

Batch

autoexec echoeserr Help return

call delltree If shift

echo for Pause switch

echoes gosub pauseerr wait

echoerr goto Rem

Dos

append del Keyb rename

break delq Lh rendir

cd dir Label share

chcp diskcomp loadhigh sort

chdir emm386 More set

cls era Md time

copy eraq Mkdir type

ctty erase Mem tree

command exit Mode ver

chkdsk edit Rmdir verify

date format Path vol

dosbook fdisk prompt vdisk

debug hiload Print xdel

diskcopy filelink Rd xcopy

doske himem

The floppy disk labeled ‘Caldera DR-DOS Operating System’ contains the standard DR DOS 7.02 command.com (i.e., bootable files). It is larger in size compared to the DR DOS command.com installed on the system. The installed command.com does not contain support for help messages which makes it smaller in size, but does not impair its functionality.

The floppy disk labeled ‘Caldera DR-DOS Documentation’ contains a DR-DOS help utility called DOSBOOK. It is recommended that users run DOSBOOK from the floppy drive in order to conserve space on the C: drive.

Operating System

Installed Commands and Utilities

Command.com

Help


Page 9

The help command is only available for the 8-MB or higher 3500 Model.

To run DOSBOOK:

1. Activate PC Keyboard mode (see p. 14). 2. Insert the floppy. 3. Enter ‘DOSBOOK’ at the B: prompt. Proper operation of the 3500 is dependent on a pre-configured directory structure. The mode selector buttons on the front panel: MODE 1, MODE 2, MODE 3, and DOS each corresponds to a functional directory located on the C: drive. The directories are referred to as functional directories because they are necessary for the 3500 to function properly. Functional directories should neither be renamed nor removed.

Functional Directories

C:\mode1

C:\mode2

C:\mode3

C:\dos

C:\system

C:\menu

All system programs are stored in the C:\SYSTEM directory.

Several programs are pre-loaded on the 3500. The main program is named FP.EXE. This is the program that operates the front panel user interface, and compiles and runs test files. The other files that are stored in the C:\SYSTEM directory are used by FP.EXE to enable certain script commands used for FAX testing and audio functions (e.g., play and record). The system programs and their related functions are as follows:

Directory Structure

System Programs


Page 10

Program Function

DOCTOFAX.EXE This program, in conjunction with FAX.FNT, converts text documents into fax format for both the FAXVGA and SFAX programs.

FAX.FNT Used by DOCTOFAX.EXE to convert text documents into fax format.

FAXVGA.EXE This program, in conjunction with HUFFMAN.DAT, HUFFMANB.DAT, and HUFFMANW.DAT, displays fax format files on a VGA monitor.

FP.EXE Operates the front panel user interface, and compiles/runs test files (e.g., scripts, executables, and batch files).

GREETING.MSG Sample audio file.

HUFFMAN.DAT

HUFFMANB.DAT

HUFFMANW.DAT

Used by FAXVGA to display fax format files on a VGA monitor.

PLAY.EXE This program plays properly formatted audio files through both the 1/8” audio output and the test ports (e.g., telephone handset).

RECORD.EXE This program records audio through either the 1/8” audio input or the test ports (e.g., telephone handset).

RFAX.EXE This program answers a call from a FAX device under test and provides all the necessary handshaking in order to properly receive a fax on the 3500.

SFAX.EXE This program provides the CNG tones and all necessary handshaking in order to send a FAX from the 3500 to a FAX device under test.

COMPILE.SCR This program compiles script files (.SCR) for faster execution by the Front Panel application. Compiled scripts have the file extension name .CMP.

DINFO.EXE This utility will verify the type and firmware version of the DiskOnChip (Drive C).

The 3500 ships with four pre-loaded DOS mode utilities that perform various system maintenance and administration functions. These utilities are launched by pressing the corresponding ‘TEST #’ button with DOS mode selected. The DOS mode utilities and their functions are as follows:

DOS Mode Utilities


Page 11

Button File Name Title Function

TEST 1 test1.scr Reset Counters Resets the PASS and FAIL counters on the front panel.

TEST 2 test2.scr Display Version Displays the front panel firmware version and the FP.EXE release number.

TEST 3 test3.bat Copy Copies test files from directories on the floppy (B:) to corresponding directories on the C: drive.

TEST 4

test4.bat Load Tests Copies test files from directories on a floppy disk to the functional directories on the system according to assignments made in a file called asgndir.bat.

TEST 5 test5.bat Admin Procedure Launches support and maintenance programs (e.g., software upgrades) from a floppy disk.



NOTE Copy, Load Tests, and Admin Procedure are protected to prevent them from being inadvertently deleted. Therefore, test files named test3.bat, test4.bat, or test8.bat cannot be copied to the DOS functional directory.

Several sample test files (all developed using the Rochelle Script Language) are pre-loaded into the various functional directories on the C: drive. These tests have been pre-compiled (using the COMPILE application) for faster execution. The test file titles and their respective modes and test launch buttons are as follows:

Sample Test Files


Page 12

Mode Button Title

1 TEST 1 5 Type I Caller ID Calls.

1 TEST 2 5 Type I Caller ID Calls with variable FSK Levels and SNR

1 TEST 3 Ring Level and Frequency Test

1 TEST 4 Type II Caller ID Test

1 TEST 5 Callback (Redial) Feature Test

1 TEST 6 Audio Example

1 TEST7 DTMF Digit Analysis (Requires DSP/104 Card)

2 TEST 1 DTMF Generation Test

2 TEST 2 Ring Detect Tests

2 TEST 3 Caller ID Type I and Type II Tests

2 TEST 4 Dial Pulse (PASS/FAIL)

2 TEST 5 DTMF Digit Test (PASS/FAIL) - Requires DSP/104 Card

2 TEST 6 BT Caller ID Simulation

2 TEST8 General Burn-in Test

3 TEST 1 Visual Message Waiting Test

3 TEST 2 FAX Send and Receive Test

3 TEST 3 Japan Caller ID

3 TEST 4 Answering Machine – DTMF Detection and Rejection

3 TEST 5 Answering Machine – Dial Tone Detection

3 TEST 6 UK Caller ID and Answering Machine demo

NOTE See the Sample Front Panel Scripts section for a listing of the sample test files. that are pre-loaded in the Front Panel subdirectories


Page 13

Each 3500 ships with:

Main System Unit Power Adapter Power Cord User’s Guide 3 Floppy Disks (Recovery diskettes)

Before connecting the power adapter, please read the Safety Instructions on p. 1.

To connect the power adapter:

1. Insert the power adapter cord with the ‘TOP’ label facing up into the connector labeled ‘POWER’ on the rear panel.

2. Insert the power cord into the receptacle end of the power adapter.

NOTE Use only the power adapter that came with the system. Use of other power adapters voids the product warranty and can damage the system.

To boot the 3500:

1. Press the button labeled ‘POWER’ on the front panel. As the system boots, the display will show: POWER-ON TEST PLEASE WAIT Once the system is finished booting, the display shows: READY

If a problem is encountered during the booting process, the display shows: POWER-ON FAILURE PLEASE POWER OFF

Connecting the Power Adapter

Booting the System

What’s Included


Page 14

NOTE While simultaneously pressing <CTRL>, <ALT>, and <DEL> on an attached keyboard will reboot the system, it will not reset the front panel.

There are two system operating modes: Front Panel and PC Keyboard. Front Panel Mode utilizes the front panel interface (i.e., LCD, LEDs, etc.). PC Keyboard Mode makes use of a VGA monitor and a keyboard for a typical PC interface including the standard DOS prompt/command line.

When the system initially boots, it automatically launches Front Panel Mode. To activate PC Keyboard Mode, press <ESC> on a properly connected keyboard, upon completion of the booting process. Front Panel Mode is re-activated from a DOS prompt by typing ‘FP’ <ENTER>.

Test files are programs or scripts which contain the necessary commands and instructions for the 3500 to perform a test. Test files may be programs developed in C or Basic, DOS batch files, or scripts developed using the Rochelle Script Language (RSL). Therefore, test files may have any of the following extensions: exe, bat, or scr.

Programs developed in C or Basic should be capable of running in a DOS environment. When developing a batch file, take note of the available DOS commands and utilities (p. 8). Additional DOS external commands may be loaded as needed from the floppy labeled ‘Caldera DR-DOS Operating System’ or purchased from ZF MicroSystems at 1-800-683-5943 or 650-965-3800.

Scripts that will be used as test files must be developed using the Rochelle Script Language (RSL), version 3.0 or more recent. Note that scripts developed for the Rochelle Analog Services Telephone Line Simulator (ASTLS), Model 3410, are fully compatible with the Model 3500.

Test Files

The Rochelle Script Language

Front Panel vs. PC Keyboard


Page 15

Additional script commands are available with the 3500 to facilitate the use of the front panel user interface. These additional commands and their function are as follows:

Command Function

ClearLcd Clears both lines of the LCD.

DisplayVersion Displays the versions of the existing front panel firmware and main system program (FP.EXE).

LedBlink [#] Causes the corresponding LED to blink.

The LEDs are numbered 1-14 as follows:

TEST 1 TEST 2 TEST 3 TEST 4 TEST 5 TEST 6 TEST 7 TEST 8 PASS FAIL MODE 1 MODE 2 MODE 3 DOS

LedOff [#]

Turns the corresponding LED off.

= 1 = 2 = 3 = 4 = 5 = 6 = 7 = 8 = 9 = 10 = 11 = 12 = 13 = 14

LedOn [#] Turns the corresponding LED on.

PanelPause Causes the script to pause until a button is pressed on the front panel.

WriteCounter1 [numbers] Displays numbers on the PASS counter.

WriteCounter2 [numbers] Displays numbers on the FAIL counter.


Page 16

Command Function

WriteLcd [text] Displays text at the current location on the LCD.

WriteLcd1 [text] Displays text on the top line of the LCD. If no text is entered this command will clear the top line of the LCD.

WriteLcd2 [text] Displays text on the bottom line of the LCD. If no text is entered this command will clear the bottom line of the LCD.

Test Files must be named test1.* through test8.* (the extension depends on the type of file). Each functional directory: mode1, mode2, mode3, and dos can accommodate eight test files. The test files are automatically mapped to the test launch buttons on the front panel based on the file name.

NOTE If there is more than one file called test1 (e.g., test1.bat, test1.scr, and test1.exe), the system looks first for a .scr file, then an .exe, and finally a .bat file.

Test files must be loaded on to the C: drive in order to be launched with the test launch buttons on the front panel. A preinstalled DOS mode utility automatically copies files from a floppy into the functional directories on the C: drive. The utility is launched by pressing the ‘TEST 4’ button with DOS mode selected.

NOTE All floppy disks used for loading test files should first be checked for viruses.

A file called asgndir.bat determines which directory (set of tests) on the floppy disk is associated with each of the mode selector buttons: MODE 1, MODE 2, and MODE 3, by assigning the directories to the functional directories (see Directory Structure, p. 9) on the C: drive. The file, asgndir.bat, must be included on the floppy disk in order to use the DOS mode utility.

Naming Test Files

Loading Test Files


Page 17

SET MODE1=[directory name] SET MODE2=[directory name] SET MODE3=[directory name] SET DOS =[directory name]

The asgndir.bat file is edited to establish relationships between directories on the floppy disk and functional directories on the C: drive. Note that it is not necessary to enter a directory name for each mode. For example, if a user wants to load only one set of test files from a directory called ‘CIDPHONE’ on the floppy disk, they could edit line 1 to read ‘SET MODE1=CIDPHONE’ and leave the other lines blank following the ‘=’.

NOTE In the DOS functional directory, file names test3.bat, test4.bat, and test8.bat are used by preinstalled DOS mode utilities. Files with the same name and extension cannot be copied to the directory.

In cases where the directory names on the floppy are identical to the names of the functional directories on the C: drive, it is not necessary to include asgndir.bat on the floppy. An alternative DOS mode utility, launched by pressing the ‘TEST 3’ button with DOS mode selected, simply copies the files from directories on the floppy (B:) to the corresponding directories on the C: drive.

Tests are run from the front panel by pressing the corresponding test launch button while the appropriate mode is selected. For example, to run a Mode 1 test named ‘test1.scr’, the user would press the ‘MODE 1’ button, to select Mode 1, followed by the ‘TEST 1’ button.

REMEMBER The system must be in Front Panel Mode in order to utilize the front panel interface.

To terminate a test at any time, press the ‘FAIL’ button. This is similar to pressing <ESC> on a PC keyboard.

Running Tests


Page 18

The system programs that are used to simulate the sending and receiving of faxes (SFAX.EXE and RFAX.EXE) operate in a fixed manner. Therefore, depending on the type of FAX device being tested, the test file will need to introduce delays and prompt the 3500 operator accordingly. For example, when sending a FAX from the 3500 to a FAX device in manual answer mode, it will be necessary to instruct the operator to go off-hook to receive the FAX. This can be accomplished in a script using the Delay and WriteLcd commands.

NOTE When sending a FAX from the device under test to the 3500, the operator must follow the number dialed with a ‘#’.

The 3500 supports the playback and recording of audio files in the following format:

Format: File Extension: Sample Rate: Channels: Resolution:

Signed PCM MSG 9600Hz Mono 16-bit

Playback can be initiated using the PLAYWAVE script command and record can be initiated using the RECORDWAVE script command. Audio files are accessed from and stored to the C:\SYSTEM directory (where the PLAY.EXE and RECORD.EXE programs are located) by default. In order to access and store audio files in other directories (e.g., any of the mode directories), a path must be specified after the PLAYWAVE/RECORDWAVE script command.

For example, PLAYWAVE C:\MODE1\FILENAME.MSG.

NOTE The audio capabilities of the 3500 are designed for telephony testing. The ‘AUDIO IN’ and ‘OUT’ ports are extensions of the simulator audio path. They are not suitable for multimedia applications typically found on desktop PCs.

FAX Testing

Audio


Page 19

Telecommunications Products, Inc. maintains an R&D facility in Austin, Texas and a manufacturing plant in Malaysia. R&D engineers use a Rochelle Model 3410 Analog Services Telephone Line Simulator (ASTLS) and the Rochelle Script Language to develop tests to exercise product features and ensure that products are performing according to applicable standards. The production facility utilizes several Model 3500 Caller ID Telephone Production Testers to perform QA testing.

The current month’s production schedule includes a run of each of three products: the Model 67FAX fax machine, the Model 99CIDCW Caller ID on Call Waiting display unit, and the Model 1302AM digital answering machine w/ Caller ID. In the development of these products, R&D engineers created several scripts to exercise the various features of the products. In preparation for production, the engineers modified the existing scripts to perform quick, quality assurance type tests suitable for a production-line environment. Scripts for the 67FAX include handshake, send, and receive tests, scripts for the 9900CID include single message, multiple message, and type II Caller ID tests, and scripts for the 1302AM include single and multiple message Caller ID tests and various message recording and playback tests.

As production is set to begin, R&D engineers forward the scripts to Malaysia, via e-mail, in the form of a single zipped (compressed) file. When production personnel unzip the file, three directories, 67FAX, 9900CID, and 1302AM, and a file called asgndir.bat appear. Each directory contains eight files named test1.scr through test8.scr.

Production personnel copy the three directories and their contents, and the file, asgndir.bat, to a floppy disk. They then boot the 3500, insert the floppy, press the ‘DOS’ button to select DOS mode, and then press the ‘TEST 4’ button to load the test files. The system begins to copy the files to the functional directories on the C: drive according to the definitions contained in asgndir.bat. Once the process is complete, the system is ready for testing and production begins.

SET MODE1=67FAX SET MODE2=9900CID SET MODE3=1302AM SET DOS=

Application Note


Page 20

Rochelle Communications recommends that the Model 3500 be calibrated on a regular interval of 1-year. Refer to the Certificate of Calibration that accompanied the unit to determine the next due date.

When your Model 3500 is due for calibration, contact Rochelle or an Authorized Rochelle Distributor, Dealer, or Agent to schedule maintenance services. Maintenance charges are available from the Product Service Department upon request.

Central Office Line Simulation Type: 2-Wire, Loop Start AC Impedance 600 or 900 ohm (+/- 25 ohm),

internally set by JP5 DC Voltage 48VDC (floating); software-

controlled polarity Ringer: Programmable 15 to 80 VACrms (+/- 1 VACrms),

20 Hz to 80Hz (+/- 1 Hz); software-controlled cadence

Line Current Feed: Programmable 10 to 80 mA in 1 mA increments (+/- 2mA)

Loop Simulation Short (0 km), Medium (3 km), and Long (6 km) – 24AWG telephone wire simulated by a precise RC network.

Modem Type: Bell 202or V23 Prog. Transmit Levels: 0 to -48 dBm Carrier Detect Sensitivity: ON at –43 dBm, OFF at -48 dBm

Fax Modem Type: ITU V.29, V.27ter, V.26bis Speed: 9600/4800/2400 bps; GIII compatible Prog. Transmit Level: 0 to -48 dBm

Rochelle Calibration Services

Specifications

Calibration Interval


Page 21

Five Programmable Tone Generators Primary Generator Frequency Range: 150 Hz to 20,000 Hz (+/-2 Hz) Levels: -38 dBm to +10dBm(+/- 0.5

dBm) Four Additional Generators Frequency Range: 50 Hz to 3500Hz (+/-2 Hz) Levels: -48 to 0 dBm (+/- 0.5 dBm)

Noise Generator Type: White; flat to better than 50 kHz Randomness: Pseudo-random, with repeat

interval of 5.2 hours

Range: 88 to 20 dBrnC (+/- 1.0 dBrnC)

DTMF Receiver Frequency Deviation Accept: +/-1.5%, +2 Hz nominal Frequency Deviation Reject: +/- 3.5% Amplitude for Detection: 32 dBm to -2 dBm per

tone Duration: 40 mS or greater

Audio In/Audio Out Physical Description: Mono, 3.6mm (1/8”) jacks Input Impedance: 10K ohms Prog. Volume Control (In/Out): 0 dB to -48 dB Output Drive: Any load with impedance of 4

ohms or higher Audio Out Power: Up to 6 watts Frequency Response: Flat; +/- 0.3 dB shaping relative

to 1.0 kHz @ 200 Hz to 4 kHz


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User Interface (Front Panel) 2 Line x20 Character Vacuum Fluorescent Display 14 Push-Buttons w/ LEDs Pass/Fail Counters Testing Ports: 2 RJ-11, and 1 Set of Banana Jacks (Tip

and Ring)

PC Subsystem 486SX 66 or 100 MHz Processor 2 or 10 MB DRAM 2 MB DiskOnChip (expandable to 288 MB) – Drive C: Dual Density 3.5 inch Floppy Disk Drive (2HD/2DD) - Drive A: 9-pin RS-232 Serial Port-DTE (configured as COM1) Standard 15-pin VGA Port PS/2 Style Keyboard Input 25-pin Multi-Mode Bi-Directional Parallel Port (configured as LPT1) Real-Time Clock w/ 3.6 V Lithium Battery Backup PC/104 Carrier

Operating System Caldera DR-DOS v. 7.02 (embedded version w/ limited external commands)

Programming Language Rochelle Script Language™, Release 3.0 or more recent Turbo C with libraries and examples provided with 3500-DEV

Mechanical Dimensions: 10.1” x 12.8” x 4.1” (metal die-cast

enclosure) Weight: 8.8 lbs. (4.0 kg)

Power Universal Input (100 - 250 VAC / 50 - 60 Hz) External Power Adapter Unit - 25 Watts nominal

Maximum Requirements:

+ 5 VDC +12 VDC –12 VDC

4.0 A MAX 1.0 A MAX 0.6A MAX


Page 23

This equipment has been tested and found to comply with the limits for a Class A digital device, pursuant to part 15 of the FCC rules. These limits are designed to provide reasonable protection against harmful interference when the equipment is operated in a commercial environment. This equipment generates, uses, and can radiate radio frequency energy and, if not installed and used in accordance with the instruction manual, may cause harmful interference to radio communications. Operation of this equipment in a residential area is likely to cause harmful interference, in which case the user will have to correct the interference at his or her own expense.

FCC Part 15

ROCHELLE COMMUNICATIONS DSP/104 INSTALLATION GUIDE AND USER

GUIDE

Caller ID Telephone Production Tester User guide

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IINNSSTTAALLLLAATTIIOONN

The DSP/104 is an optional internal for the Rochelle 3500 Caller ID telephone Production Tester which features a programmable Digital Signal Processor (DSP) with telephony analysis functions. To install the DSP/104, please remove the top two screws on the front and back panels and lift the top cover. Plug card into PC104 connector of 3500 and secure with screws. Connect cable from J1 on the DSP/104 to J10 on the main board of the 3500.

Jumper Settings

The card is configured at the factory as COM3 ( 3E8H – 3EFH interrupt 4). The signal multiplexers and programmable gain amplifier use addresses 3E0H – 3E7H. Other address selections are possible via jumpers on JP1. (Note: A9 is assumed to be “1”). The DSP/104 requires 16 consecutive bytes of address space. In the default settings, the DSP/104 uses addresses 03E0H - 03EFH.

Interrupt Settings

The interrupt may be set as IRQ4, IRQ9, IRQ10, or IRQ11 via the jumper position on JP2. The default is IRQ4.

Auxiliary Inputs

J2 provides extra inputs for measurement of additional ac signals. The pin assignments for J2 are as follows.

JJ22 PPIINN AASSSSIIGGNNMMEENNTTSS

1 AIN1 2 GROUND 3 AIN2 4 GROUND 5 AIN3 6 GROUND 7 AIN4 8 GROUND 9 RESERVED 10 GROUND 11 RESERVED 12 GROUND 13 RESERVED 14 GROUND 15 RESERVED 16 GROUND 17 AIN9 18 GROUND


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19 AIN10 20 GROUND 21 AIN11 22 GROUND 23 AIN12 24 GROUND 25 AIN13 26 GROUND 27 AIN14 28 GROUND 29 AIN15 30 GROUND 31 AIN16 32 GROUND 33 DSPOUT 34 GROUND It is recommended that the inputs be AC coupled or swing symmetrically about ground. The maximum signal levels should not exceed +/- 5 volts. The maximum signal that can be measured is 2.4 VAC peak or approximately 1.7 VRMS. The input signals listed above are applied to two multiplexers. AIN1, AIN2, AIN3, AIN4, and the reserved signals connect to multiplexer number one and the remaining signals connect to multiplexer number 2. The default address for multiplexer one is 03E0H. The address for multiplexer two is 03E1H. To select an input on multiplexer one, write the following to address 03E0H. AIN1 00 AIN2 01 AIN3 02 AIN4 03 The output of multiplexer two is applied to an input of multiplexer one. To select an input on multiplexer two it is first necessary to write a 07 to address 03E0H to select multiplexer two’s output. Then the inputs are selected by writing the appropriate value from the list below to address 03E1H AIN9 00 AIN10 01 AIN11 02 AIN12 03 AIN13 04 AIN14 05 AIN15 06 AIN16 07

Programmable Gain Amplifier

The output of multiplexer one goes to a software programmable gain amplifier. This amplifier has gains of 1, 2, 4, 8, and 16. This additional gain permits the measurement of low-level signals. The address of the programmable gain amplifier is 03E2H.


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The gains are selected by writing the appropriate value from the list below to address 03E2H. Gain Value 1 0 2 1 4 2 8 3 16 4 When using the programmable gain feature on a gain setting other than 1, it is the user’s responsibility to adjust any readings from the DSP card by the appropriate factor. The corrected reading should be lower than that of unity gain. The correction factors in dB are listed as follows Gain / Correction (in dB) : 2 / -6.02, 4 / -12.04, 8 / -18.06, 16 / -24.08. For example: If the gain is set for 2 and the DSP returns a measured value of –10.2, the actual value is = -10.1 –6.02 = -16.21. To select the multiplexers the command “INPUTSOURCE AUX” must be sent to the DSP card. To restore the DSP input send the command “INPUTSOURCE LINE” after the “>” appears. COMMAND SET INTERFACE. The DSP card communicates via COM3 at 19,200 BPS, 8 data bits, no parity and 2 stop bits. Commands must be terminated with a carriage return and line feed. The DSP card will send a “>” when it is ready to accept a command. Two tone generators, a FSK generator, an RMS and a P.56 speech meter and a DTMF digit analyzer may be programmed and selectable. The commands supported by the DSP/104 are: TONE1 {ON,OFF} Tone1Freq frq ; frq is in the range 10.0 to 10000.0(Hz) Tone1Level amp ; amp in the range -56.0 to +4.0(dBm) TONE2 {ON,OFF} Tone2Freq frq ; frq is in the range 10.0 to 10000.0(Hz) Tone2Level amp ; amp in the range -56.0 to +4.0(dBm) SENDFSK "Quoted String" ;see below for more details CARRIER {ON,OFF} SPACE {ON,OFF} MarkFreq frq ; frq is in the range 1100.0 to 1400.0(Hz)


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SpaceFreq frq ; frq is in the range 2000.0 to 2300.0(Hz) MarkLevel amp ; amp in the range -56.0 to +4.0(dBm) Twist tamp ; tamp in the range -10 to +10(dB) BitRate frq ; frq in the range 1150.0 to 1250.0(Hz) MarkStuffing bits ; bits is a positive decimal value from 0 to 150 in steps of 1 Echo1Attn {attn,OFF} ; the parameter is either OFF or attn, where attn is from 0.0 to 48.0(dB) Echo1Delay dly ; dly is from 0.0 to 20.0(ms) Echo2Attn {attn,OFF} ; the parameter is either OFF or attn, where attn is from 0.0 to 48.0(dB) Echo2Delay dly ; dly is from 0.0 to 20.0(ms) INPUT {ON,OFF) InputAttn attn ; the parameter is attn, where attn is from -30.0 to 30.0(dB) InputGain {0,6,12} ; this command sets the input gain to 0, 6dB, or 12dB InputSource {LINE, AUX} ; this command selects the input source THROUGH {ON/OFF} ThroughAttn attn ; the parameter is attn, where attn is from -30.0 to 30.0(dB) ThroughDelay dly ; dly is from 0.0 to 100.0(ms) CAL {8/24} ;performs an RMS measurement using 8 KHZ or 24KHZ sampling SPEECH N ;performs P.56 Method B compliant level measurement on N seconds of speech. DTMF ;performs DTMF digit analysis. See below for details. SAMPLE ;samples waveform in 8-bit PCM format. See below for details FFT ;performs an Fast Fourier Transform (FFT) on 1024 time-domain samples frq is a positive decimal integer or a positive decimal real number to one decimal place only. amp is a signed decimal integer or a signed decimal real number to one decimal place only.

For positive values, the leading + sign is optional. tamp is a signed decimal integer. For positive values, the leading + sign is optional. dly is a signed decimal integer or a signed decimal real number to one decimal place only.


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FSK Generation Commands SENDFSK "Quoted String" Prior to issuing this command, the FSK modem parameters must be set as desired, the carrier turned on, and the modulator set to send mark. The characters between the first quotation mark and the sequence <double quotation mark><CR><LF> will be transmitted. The sequence may contain double quotation marks, <CR>, <LF>, and any other non printing characters. The 8th bit is not stripped within the quoted string so that the value of the 8th bit is preserved (it may, for example, be a parity bit). A prompt is transmitted by the DSP to the PC after the FSK transmission of the string. At the completion of the transmission of the string, the carrier is left transmitting continuous mark. RMS Signal Measurement. The command to measure a signal is “CAL 8”. After one second the DSP card returns the RMS value of the applied signal. CAL 8 uses 8 KHz sampling and therefore is good for signals with frequency content less than 4KHz. For higher frequency signals there is a “CAL 24” command. It operates the same as CAL 8 but uses 24KHz sampling. The maximum frequency content should be 12KHz. Due to differences in the pass-band ripple of internal filters, CAL 8 and CAL 24 may return different values when measuring the same signal. Sample Capture Command. SAMPLE All audio transmission is turned off. The asynchronous transmission rate is changed to 115.2kbit/s. Audio samples are captured at 8 kHz from the LINE or AUXIN input, as selected, and transmitted to the PC as PCM µ law compounded data samples in byte format.


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The DSP continues to send PCM samples to the PC until the PC sends the <ESC> character to the DSP at 115.2kbit/s. The DSP will then cease sending samples, change the transmission rate back to 19.2kbit/s, turn back on audio transmission as operating previously to the SAMPLE command, and then send a prompt to the PC to indicate that it is ready to receive another command.

Command for Performing FFT.

FFT After the <CR><LF> following the FFT command, 1024 time domain data samples are sent by the PC in µ-law PCM format as bytes, first sample in time first, followed by a further <CR><LF>. The DSP then turns off all audio transmission and then performs a 1024 element FFT. It then sends the 1024 frequency domain data samples back to the PC, followed by <CR><LF>. The samples will represent the magnitude in each frequency bin. Their numerical representation will be:

• 16-bit linear, • 2s complement signed positive

The magnitudes will be scaled so that, for a 0dBm rms sine wave whose frequency centers on an FFT bin, the result will be (~)+32767. The transmission format will be:

• lowest bin first • byte pairs for the 16-bit words, with least significant byte first in each pair • values reckoned below the estimated noise floor will be returned at the estimated

noise floor value Following transmission of the result, the DSP turns back on all audio transmission, and sends a prompt to the PC to indicate that it is ready for another command.

Command for DTMF Digit Analysis. DTMF All audio transmission is turned off. Audio samples are captured at 8 kHz from the AIC LINE or AUXIN input, as selected, and DTMF digits are collected. When each digit start is detected, the following ASCII encoded information is sent to the PC:

• The time duration in ms since the cessation of the previous digit (i.e. the inter digit pause), followed by <SPACE>

• The digit value, followed by <SPACE>


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• The frequency (in Hz) and level (in dBm) of the lower frequency of the pair, each followed by <SPACE>

• The frequency (in Hz) and level (in dBm) of the upper frequency of the pair, each followed by <SPACE>

On cessation of the digit, the following information is reported:

• The duration in ms of the digit, followed by <CR><LF> The full line written by the time the end of the digit has occurred will thus read IDP D LF LFL UF UFL DL <CR><LF> Where, IDP = inter digit pause decimal number in mS (or >10000 if more than 10 seconds have elapsed) D = digit ASCII character LF = frequency of lower tone decimal number in Hz LFL = level of lower tone decimal number with one digit after decimal point in dB UF = frequency of upper tone decimal number in Hz UFL = level of upper tone decimal number with one digit after decimal point in dB DL = digit length decimal number in mS (or >10000 if more than 10 seconds long) The DTMF detection mode is terminated by the PC sending an <ESC> character. Any audio transmission is then restored and a prompt is sent to the PC to indicate that it is ready to receive another command.

Command for P.56 Speech Measurement. SPEECH N This command may only be used where through signal processing mode has been selected with a "THROUGH ON" command. Audio samples are captured at 8 kHz from the LINE or AUXIN input, as selected, filtering and attenuation/amplification is applied as selected, and the speech level is measured according to the P.56 method B for a period of N seconds or until <ESC> is typed, whichever is the sooner. At the completion of the measurement, the following information is transmitted to the PC as four ASCII encoded numbers separated by one space and terminated by <CR><LF>:

• measurement time in seconds as an integer

• the Activity Factor as an integer between 0 to 100 indicating percentage


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• the Active Level in dBm to one decimal place

• the Long Term Level in dBm to one decimal place

After a measurement, whether timed out or aborted, any audio transmission is then restored following transmission of the results and the <CR><LF> prompt and the DSP is ready to receive another command

3500 Menu Software

Overview

Revision 2.2 January 2002


MODEL 3500


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The software for the Model 3500 CALLER ID TELEPHONE PRODUCTION TESTER, 3500MENU.EXE, is an optional DOS-based application which offers the user flexibility and convenience in simulating a variety of telephone line conditions and impairments. All network tones and the supported modem signals are also programmable. Some features include:

• Global Caller ID simulation including Telcordia (Type 1, 2), ETSI, NTT, DTMF/MF implementations

• Network tone simulation including call progress tones, special information tones (SIT), subscriber pulse metering (SPM – 12kHz and 16kHz), as well as user programmable, non-standard tones

• Simple, functional fax tester (up to 9600 baud)

• Low speed modem performance tests in the presence of line impairments for Bell 202 and V23

• Programmable audio file player and recorder (16-bit PCM and ADPCM formats)

• DC and AC signal level measurements

• Voltage versus Current Plots for the US and UK

• Return Loss Measurement and Plot

• Dial Pulse Measurement and Analysis

• Script language interpreter

The 3500MENU software comes pre-loaded on the 3500 in the C:\MENU subdirectory. To launch it, proceed as follows:

1. Change directories to the subdirectory MENU. C:\>CD MENU

2. At the prompt, type 3500MENU

3. Press <Enter>

The Network Services menu and associated submenus provide an intuitive means to simulate Caller ID, Call Waiting ID (Type II), Visual Message Waiting,

Software Overview

Launching the Software

Telephone Network Services


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and Network Tones for the US, UK, Sweden, Denmark, Norway, France, and Japan

The Line and Signal Measurements module includes several options for measuring voltage and levels in the presence of various current conditions and signals on the simulated line.

The Line DC Voltage option measures the DC voltage on the simulated line while the device under test is off-hook. The line current may be varied between 10 and 80 mA using the ‘+’ and ‘-’ keys on the keyboard. The displayed voltage measurement refreshes every 1 second.

Measurement resolution is 0.1 V DC.

The Voltage vs. Current Plot option represents an implementation of TIA/EIA-470-B for the US market, and according to BT specifications for the UK. These particular clauses require off-hook, tip-to-ring, DC voltage-versus-current characteristics to conform to a specified region of a particular figure in the specification. This figure, which is reproduced in the software, is used to plot the voltage-versus-current characteristics of a device under test. The results of this test are automatically saved in the comma-delimited file VIPLOT.CSV.

The measurement scenario used in the software is similar to that described in the specification. Upon going off-hook, the software incrementally increases the current from 10 mA to 80 mA in 2-second intervals and plots the measured voltage.

The Line AC Voltage option measures the AC voltage on the simulated line while the device under test is off-hook. This test is useful for measuring voltage levels as signals, such as DTMF, are generated by the device under test. The line current may be varied between 10 and 80 mA using the ‘+’ and ‘-’ keys on the keyboard. The displayed voltage measurement refreshes every 1 second.

Measurement resolution is 1 mV AC. Values less than 50 mV appear as ‘---’ and values greater than 1.5V appear as ‘Out OF Range’.

The Return Loss measurement and plot options compare the impedance of the device under test with the source impedance by comparing the voltage of the load to the voltage of a known 600 ohm source. The measurement is taken in the presence of a single frequency tone over tip/ring via a 600 ohm internal impedance. The return loss is presented in dB according to the following calculation:

Line and Signal Measurements

Line DC Voltage

Voltage vs. Current Plot TIA/EIA 470-B (USA) UK Canada

Line AC Voltage

Return Loss Measurement and Plot


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R1 + R2 20 log 10 R1 – R2

R1 = source R2 = load

The results are plotted and saved into the comma-delimited file LOSS.CSV.

The 3500MENU software allows the user to measure the number of pulses per second (pps) and the Make/Break ratio for pulse dialing telephone instruments.

DTMF Digit Analysis The DTMF digit analysis function measures the frequencies, amplitude, and duration of DTMF tones. It requires the presence of the optional DSP/104 card.

Dial Pulse Measurement Analysis

MODEL 3500 REMOTE CONTROL

Caller ID Telephone Production Tester User Guide

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RC.EXE SOFTWARE DESCRIPTION VERSION 1.2 ( Optional) RC.EXE is a DOS based application, which allows a Rochelle Communications Caller ID Telephone Production Tester, Model 3500 to be controlled from an External PC using its serial port. A null modem cable is needed to interface the 3500 to an external PC or serial terminal. I. USAGE: RC.EXE is invoked by the AUTOEXEC.BAT file system boot-up. It initializes COM1 and sets it at 9600,N,8,1. No handshaking or flow control is used. Upon initialization, RC sends the prompt “>” to indicate that it is ready to accept remote commands. II. COMMAND SET: The following commands are supported, and are not case sensitive: AT_RUN <script file name ><CR> This will cause the software to compile and execute the referenced script file. Responses: Upon completion of the compile and right before execution, the software sends “+”. After the end of execution, it sends “>” to indicate that it is ready for the next command. AT_STOP This command will abort the script under way. The software will return “>” when completed. AT_VERSION This command will return the version number of the SC>EXE followed by <CR><LF>. Current value is 1.1 <CR> or AT_<CR> Carriage Return by itself, or AT followed by <CR> will return “>”, indicating that the software is ready for the next command. SYNTAX ERRORS When an incorrect command or script file name is entered, the software returns “?” followed “>”, to indicate that it is ready for the next command. EXAMPLE The DTMF.SCR script supports the passing of results to the host PC. Example: > AT_RUN DTMF.SCR + **Start execution 0 **Detected DTMF digits 1 7 8 AT_STOP > **Ready for next command

MODEL 3500 SCRIPT LANGUAGE REFERENCE MANUAL


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INTRODUCTION The Rochelle Script Language is an easy to use, yet flexible programming language, which allows users to quickly develop automated test sequences for performance analysis and quality assurance (QA). Script commands are entered, using any text editor, in a sequential fashion (one command per line) to create a script file. Script files are saved as a text file with a .scr extension. filename.scr. A script file may be executed on the 3500, or may be pre-complied for faster execution time. A compiled script file will consist of binary data and will have a .cmp extension. The many commands in the script language allow the user to program parameters such as: line current, ring duration, ring level, FSK signal level, Signal to Noise Ratio, CPE Alert Tone (CAS) levels, frequencies, and duration. Refer to the Script Command Reference for a complete list, including descriptions, of the available commands.

3500 MODES OF OPERATION

The Caller ID Telephone Production Tester, Model 3500 operates in one of four modes of operation:

1. Front Panel Mode: This is the default state of the 3500. A front panel application FP.EXE is managing the operation of the unit and will execute scripts that correspond to any test buttons that are pressed. For example, if the 3500 is in the MODE1 state, and the user presses TEST6, the 3500 will execute test6.cmp or test6.scr in the C\MODE1 subdirectory. A script may generally be aborted by pressing the FAIL button on the front panel, or by pressing ESC on a PC keyboard that may be optionally attached to the 3500.

2. Keyboard Mode: By connecting a PC keyboard and PC VGA monitor to the 3500 and pressing ESC,

the user can exit from the Front Panel Mode. At that point, the 3500 will behave as a DOS computer and allow the user to access standard text editors and other system utilities to make changes to the script files. In this mode, the user may compile any text script (.scr) into an executeable (.cmp) by running the COMPILE.EXE command. Example: COMPILE test1.scr will generate the new file test1.cmp. The optional menu software 3500MENU.EXE allows the user to edit and execute script files. Script execution may be aborted by pressing the ESC button on the keyboard.

3. Remote Control Mode: By connecting a null modem between an external host PC and the 3500’s

COM1 port and by running the application RC.EXE on the 3500, the user will be able to remotely run and stop the execution of scripts on the 3500. Example: AT_RUN filename.scr command sent from the host computer at 9600,N,8,1 will cause the 3500 to run the script filename.scr residing on the 3500 system directory. AT_STOP will abort the execution of the script in progress.

4. GPIB Mode: The 3500 can be equipped with an IEEE-488 GPIB module (GPIB/104), which allows it to

act as a Talker and Listener and to execute scripts under the external control of a host using the GPIB protocol. This is feature that is under development. Please contact Rochelle Communications for more information.


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COMMAND REFERENCE CONVENTIONS

The following notation conventions are used throughout the Script Command Reference:

Convention Purpose UPPERCASE Represents a script command or function.

{scroll brackets} Encloses required items and parameters. Type only the information

within the brackets, not the brackets themselves.

[square brackets] Encloses optional items and parameters. Type only the information within the brackets, not the brackets themselves.

<angle brackets> Encloses non-printable, binary values represented as a two-byte hexadecimal.

| (vertical bar) Separates options inside a set of brackets. Only one option should be selected.

Num Represents a numeric expression.

Expr Represents an alphanumeric expression.

Script commands are not case sensitive, but parameters must be separated by spaces. Each script command and its corresponding parameters (if any) must be entered on a separate line, terminated by a carriage return and a line feed. Comments can be included on the same line as long as they are placed after an * (asterisk) or ; (semi-colon). Caller ID, Incoming Calling Line Identification (ICLID), Calling Line Identification (CLI), and CID all used interchangeably and all refer to the telephone network service and its implementation for the identification of a caller’s telephone number and other information. The abbreviation ms refer to milliseconds.

Script Command Classification

The 3500 script commands are grouped in three classes, depending on their function: I) Front Panel Control

II) CO Line Simulation and Signaling, and

III) Measurement, Logic, and System Functions


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This documents lists the support script commands alphabetically in each of these groups for ease of reference. I) FRONT PANEL CONTROL COMMANDS The following commands may be used to control the 2x20 Vacuum Fluorescent Display (LCD), two 4-digit counters, and 14 LED’s on the 3500’s Front Panel. These commands are unique to the 3500 and will not execute on other Rochelle testers (such as the ASTLS 3410) with script support. - CLEARLCD: Clears the LCD and positions the cursor at the beginning of line 1. - DISPLAYVERSION: Displays the Front Panel firmware version on the LCD line 1, and the FP version on the LCD line 2. - LEDBLINK {Num}: Blinks the specified LED (1-14), where LED1 – LED8 correspond to TEST1 – TEST8, LED9 = PASS, LED10 = FAIL, LED11 = MODE1, LED12 = MODE2, LED13 = MODE3, and LED14 = DOS MODE. - LEDOFF{Num}: Turns the specified LED (1-14) OFF. See LEDBLINK for LED mapping. - LEDON {Num}: Turns the specified LED (1-14) ON. See LEDBLINK for LED mapping.

Example:

LEDON 9 * Turns ON LED 9 (associated with the PASS button) - PANELPAUSE: Pauses script execution until any key is pressed on the Front Panel. - WRITECOUNTER1 [….]: Writes the specified parameter to the PASS counter up to 4 digits (0-9999). If a parameter is not present, the PASS counter will be cleared.

Examples: WRITECOUNTER1 239 * Displays 239 on the PASS counter WRITECOUNTER1 * Clears the PASS counter - WRITECOUNTER2 [….]: Writes to the FAIL counter up to 4 digits (0-9999). If a parameter is not present, the FAIL counter will be cleared.

Examples: WRITECOUNTER2 5 * Displays 5 on the FAIL counter - WRITELCD […..]: Writes to the front panel LCD at the current cursor position. No blanks are appended to the string. - WRITELCD1 […]: Writes up to 20 characters to the first line on the LCD. Pad with trailing blanks. If no parameters are found, then LCD line 1 is cleared and the cursor is placed at the beginning. Kanji and other non-ASCII characters may be specified by


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typing their HEX value between angle brackets. For a listing of the Kanji and special character code map, please refer to the Noritake CU20025 data sheets which may be found on Noritake’s web page, or contact us.

Examples:

WRITELCD1 Hello There * Displays “Hello There” on line 1 WRITELCD1 * Clears LCD line 1 WRITELCD1 <89><AB> * Displays the corresponding characters to * 89H and ABH.

- WRITELCD2 […]: Writes up to 20 characters to the second line on the LCD. Operates in a similar manner as WRITELCD1. II) CO LINE SIMULATION AND SIGNALING COMMANDS These script commands allow the definition and control of the CO line simulation parameters and AC signaling characteristics, including line current, line polarity, ringing, and Caller ID signals.

Default Values

Each time a script is launched, the program sets various parameters to default values. For parameters with a default value, the user may choose to accept the default value or change the value with a script command. All parameters without a default value must be set with a script command.

Parameter (units) Default Value Limits Command(s) to Change Ring Level (VRMS) 60 20-80 RINGLEVEL

Ring Frequency (Hz) 20 20-80 RINGFREQ CAS Tone Frequency

Tone 1 (Hz) Tone 2 (Hz)

2130 2750

50-3500 50-3500

TONE1FREQ TONE2FREQ

CAS Tone Levels Tone 1 (dBm) Tone 2 (dBm)

-20 -20

-48 – 0 -48 – 0

CASLEVEL or TONE1LEVEL TONE2LEVEL

SAS Tone Frequency (Hz) 440 Fixed at 440 N/A SAS Tone Level (dBm) -20 -48 - 0 LEVEL

Level (dBm) -20 -48 - 0 LEVEL SNR (dB) 48 0 - 48 SNR

Line Current (mA) 40 10 - 80 LINECURRENT FSK Modem Type Bell202 Bell202 or V23 MODEM SPM Level (dBm) -20 -38 - +10 SPMLEVEL

Polarity Normal Normal / Reverse POLARITY Noise (dBrnC) OFF OFF or 20-90 NOISE

Baud Rate (bps) 1200 1000 - 1400 VARBAUD Mark Frequency (Hz) 1200 1000 – 1400 MARKFREQ

Space Frequency (Hz) 2200 2000 – 2400 SPACEFREQ


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Mark Level (dBm) -20 -48 – 0 MARKLEVEL Space Level (dBm) -20 -48 – 0 SPACELEVEL Tone 3 Level (dBm) -20 -48 – 0 TONE3LEVEL Tone 4 Level (dBm) -20 -48 – 0 TONE4LEVEL

Tone 3 Frequency (Hz) 1000 50 – 3500 TONE3FREQ Tone 4 Frequency (Hz) 1000 50 – 3500 TONE4FREQ

- AUDIOIN {ON | OFF}: ON couples the signals present on the AUDIO IN jack to the simulated line. This can be used to inject audio or noise. OFF disconnects this path. The default is ON.

Example: AUDIOIN ON * Connects audio input to line

Note: Audio input must be coupled through the AUDIO IN jack. - AUDIOOUT {ON | OFF}: ON (default) couples the signals and tones generated by the Model 3500 to the AUDIO OUT jack. OFF disconnects this path. Please note that the programmable white noise and any received signals from the unit under test are not connected to AUDIO OUT. Also, please note that OUDIO OUT is an amplified output capable of driving up to 6 watts into a 4-ohm load.

Example: AUDIOOUT ON * Turns audio output ON

- CARRIER {ON | OFF}: Initiates or terminates a continuous FSK modem carrier signal on the line. This command is useful when using the SEND command to manually generate ICLID data and control the duration of the Channel Seizure and Mark signals. This command is usually preceded by the MODEM and LEVEL commands, which select the signal characteristics.

Example: MODEM BELL202 * Selects Bell 202 mode LEVEL 20 * Sets level to -20 dBm CARRIER ON * Outputs a continuous carrier signal DELAY 3000 * Carrier duration is 3 seconds CARRIER OFF * Turns carrier OFF

- CASLEVEL {Num}: Used to set the CAS level when using the SENDCAS command to generate a nominal CAS tone. Valid values range from 0 to -48 dBm. Typical values in the field are –32 dBm to –14 dBm per tone.


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Example: CASLEVEL -20

- CASLEVEL {+ | -}: Increases or decreases the absolute value of the signal level by 1dB.

Example: CASLEVEL + CASLEVEL -

- DTMFACK {DTMF Digit}{Duration}: Pauses script execution up to the specified duration or until the specified DTMF tone (acknowledgement, or ACK) is detected. The duration is measured in ms and cannot exceed 65,535. If no duration is specified, the default value of 200 mS applies. The period between the start of this command (typically the end of an alerting CAS tone) and the start of the DTMF ACK is measured and

displayed as well as the duration of the DTMF ACK tone. If an ACK is incorrect or not received, an error message is displayed and the script continues. After each DTMFACK command, the total number of DTMFACK failures and successes is displayed.

Example: DTMFACK A 300 * Waits for up to 300 mS for the DTMF A tone DTMFACK * Waits for up to 200 mS for the DTMF D tone

Note: The Duration of the ACK tone and the delay from the start of the command to the

start of the ACK is accurate within +/- 20 mS. Please see CW_CID.SCR for more details. - DUALTONE {Duration}: Generates the two tones set by TONE1FREQ, TONE2FREQ, TONE1LEVEL, and TONE2LEVEL for the specified duration. The duration is measured in mS and cannot exceed 65,535.

Example: TONE1FREQ 770 * Sets frequency and amplitude for DTMF B TONE2FREQ 1633 TONE1LEVEL –10 * Tone 1 level is -10dBm TONE2LEVEL –8 * Tone 2 level is -8dBm DUALTONE 70 * Generates DTMF B for 70 mS

- ENDCLI: Generates an British Telecom-compliant (SIN 227 and 242) Calling Line ID


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(CLI) packet as defined by parameters following a preceding STARTCLI command (see the sample script, UK_BT.SCR).

Example:

STARTCLI parameter

. . . parameter

ENDCLI - ENDCWCID: Generates a Telcordia-compliant Caller ID on Call Waiting (Type II Caller ID) packet as defined by parameters following a preceding STARTCWCID command.

Example:

STARTCWCID parameter . . . parameter

ENDCWCID - ENDMULTIPLE: Generates a Telcordia-compliant Multiple Data Message Format (MDMF) packet, as defined by parameters following a preceding MULTIPLE command.

Example: MULTIPLE

parameter . . . parameter

ENDMULTIPLE - FSK1010: Generates a continuous alternating bit stream of FSK data (101010...) i.e., Channel Seizure, until the user presses a key.


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Example:

FSK1010 DISPLAY Press any key to stop continuous mark signal

- FSKBAUD {Baud Rate}: Sets the baud rate to be used by a subsequent VARFSKSEND command. Valid values range from 1000 to 1400, while typical values for Bell 202 systems are 1200 +/- 12. Example: FSKBAUD 1210

Note: This command is identical in function to the VARBAUD command.

- FSKBAUD {+ | -}: Increases or decreases the absolute value of the baud rate by 1.

Example: FSKBAUD + FSKBAUD -

- FSKDELAY {Duration}: Introduces a delay of the specified duration between each character (i.e., bit stuffing delay) when sending FSK data. The duration is measured in ms and cannot exceed 65,535 mS. This command only applies to the script currently

running. The delay is reset at the end of each script execution.

Example: FSKDELAY 25 * Introduces a 25 mS delay between the transmission * of each character in the following FSK data string

Note: FSKDELAY does not apply during the Channel Seizure signal.

- GETDTMFSTR {Num}: Detects DTMF tones and compares the digits to those specified. While the command executes, the detected DTMF tones are displayed on the PC monitor.

Example: GETDTMFSTR 5551234 If the wrong string is received, the following error message is displayed on the Front Panel: “ERROR. PRESS A KEY”


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- HOOK {ON | OFF}: Forces the hardware to simulate a CPE going ON HOOK or OFF HOOK. The AC impedance of the CPE load is internally set at 600 ohms.

Example: HOOK ON

- LEVEL {Num}: Sets the signal level for any subsequent FSK signal. Valid values range from 0 to -48 dBm. The minus ('-') sign is optional.

Example:

LEVEL –20 * -20 dBm signal level – approximately -14dBm into a high- * impedance load

Note: Signal levels expressed in dBm assume a 600-ohm impedance on the line. If this is not the case (e.g. Type I Caller ID transmission into a high-impedance load), the actual signal placed on the line will vary, depending on the load. The signal level into a high-impedance load will be about 4- 6 dB higher than the programmed dBm value.

- LEVEL {+ | -}: Increases or decreases the absolute value of the signal level by 1 dB. Example: LEVEL + - LINEBREAK {Duration}: Generates an Open Switch Interval (OSI) by breaking the DC on the line for

the specified duration. The duration is measured in ms and cannot exceed 65,535 mS. OSI may be used as a Terminal Equipment Alerting Signal (TAS) in conjunction with the transmission of Caller ID or VMWI information.

Example: LINEBREAK 20 * Breaks the line for 20 mS

- LINECURRENT {Num|+|-}: Sets or increases/decreases the line current on the simulated CO line. Valid range: 10mA to 80mA. Examples: LINECURRENT 20 * Sets the CO line current to 20 mA (+/-1 mA) LINECURRENT + * Increases the CO line current by 1 mA - LINELOOP {SHORT | MEDIUM | LONG}: Activates an artificial line circuit to simulate a loop length of


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0 km (short), 3 km (medium), or 6 km (long).

Examples:

LINELOOP MEDIUM * Simulates a 3 km loop length LINELOOP LONG * Simulates a 6 km loop length

Note: The simulated loop is modeled with precision resistor and capacitor networks based on published electrical characteristics for 24AWG (0.5mm) non-loaded copper telephone cable, filled core PIC, 55° F, at 1000Hz. The series resistance of such cable is approx. 165 ohms/km (265.5 ohms/mile) and the shunt capacitance is 52 nF/km (83 nF/mile). No inductors are used in this model.

- MAKECALL: Rings the device under test until it answers. Uses ring levels and frequencies as previously defined in the script and a ring cadence of 2 sec ON/4 sec OFF.

Example:

MAKECALL *Rings device under test and wait for offhook. SENDFAX Testfax.f01 * Sends the specified file in FAX format.

- MARKFREQ {Num}: Sets the frequency at which the MARK bits are sent in a VARFSKSEND string. Valid values range from 1000 to 1400 Hz. Typical value for the mark frequency for Bell 202 systems is 1200 +/- 12 Hz. Example: MARKFREQ 1180 - MARKLEVEL {Num}: Sets the signal level at which the MARK signal (logical 1) is set at in the VARFSKSEND command. Valid values range from 0 to -48 dBm, while typical values range from –12 to –32 dBm. Example: MARKLEVEL –26 - MARKLEVEL {+ | -}: Increases or decreases the value of the signal level by 1 dB. Examples: MARKLEVEL + MARKLEVEL – - MODEM {Type}: Selects the FSK Modem to be used for data transmission. Bell 202 is used for US compatible systems, whereas European (BT and ETSI) and Japanese standards rely on ITU V.23. In practice, most Bell 202 receivers will also work with V.23 frequencies.


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Example: MODEM BELL202 * Selects Bell 202 modem type for FSK transmission

MODEM V23 * Selects V.23 modem type for FSK transmission

Note: The modem type should be set for all scripts using SINGLE, MULTIPLE, SEND, STARTCLI, and STARTCWCID.

- MONITORDTMF {DTMF digit}{Duration}: Logs the number of times the specified DTMF digit is detected in the specified period. The duration is measured in seconds and cannot exceed 65,535. Time remaining and the number of detections are calculated and displayed during script execution (see also DTMFACK).

Example: MONITORDTMF D 30 * Detects DTMF ‘D’ and tallies the instances for 30 sec

- MSG6 {ACTIVATE | DEACTIVATE}: Activates or deactivates a Single Data Message Format (header value=6 hex) Visual Message Waiting Indicator (VMWI) packet. Used to simulate VMWI based on the Telcordia Technologies (formerly Bellcore) and Stentor published specifications.

Example: MSG6 ACTIVATE

- MSGMUL {ACTIVATE | DEACTIVATE}: Activates or deactivates a Multiple Data Message Format (header value=82 hex) Visual Message Waiting Indicator (VMWI) packet. Used to simulate VMWI based on the Telcordia Technologies (formerly Bellcore) and Stentor published specifications.

Example

MSGMUL DEACTIVATE - MULTIPLE: Begins the definition of a Telcordia Multiple Data Message Format (MDMF) packet. Message parameters are defined using additional script commands as outlined below. IMPORTANT: The ICLID data is preceded by the nominal Channel Seizure (300 bits/250 mS of alternating 1’s and 0’s) and Mark (150 mS) Signals.

Example: MULTIPLE

parameter


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. . . parameter

ENDMULTIPLE

The following script commands are used to define the parameters in a MDMF packet. These commands are always used in conjunction with both a MULTIPLE and an ENDMULTIPLE command. Not all parameters need to be defined in order to send a MDMF packet. - DATETIME {Num}: Date and time in the format: MMDDHHMM. Time is based on a 24-hour clock.

Example DATETIME 03241405 * March 24, 2:05 PM

- DDN {Num}: Dialable Directory Number.

Example DDN 5551234 * Number to be used for redial

- ICLID {Num}: Caller ID number.

Example: ICLID 3015551212 * (301) 555-1212

- NAME {Expr}: Directory name of the calling party. Spaces are entered as <20>.

Example: NAME DOE<20>JOE

- NAMEREASON {Expr}: Reason for name absence.

Example: NAMEREASON O * Use “O” for Out of Area / Number Unavailable

NAMEREASON P * Use “P” for Private / Blocked Number

-QUALIFIER {Expr}: Call qualifier.

Example: QUALIFIER L * Long Distance

- RDRREASON {Num}: Reason for call redirection. Valid values range from 0 to 255. Three values are currently defined, as follows:

- binary 0000 0000 -> Call Forward Universal - binary 0000 0001 -> Call Forward Busy


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- binary 0000 0010 -> Call Forward No-Answer

Example: RDRREASON <02> * Call Forward No-Answer

- REASON {Expr}: Reason for phone number absence.

Example: REASON O * Use “O” for Out of Area / Number Unavailable

REASON P * Use “P” for Private / Blocked Number

Note: For a detailed description of MDMF parameters, please refer to the appropriate service documentation from Telcordia Technologies (formerly Bellcore), or equivalent standards organizations.

- NOISE {OFF | Num}: This command sets the level of the 3500’s white noise generator. Valid values are 20 to 90 (dBrnC) or OFF, to turn it OFF. Use SNR if you need to set the noise level to be relative to the LEVEL command. - PARITY {NONE | ODD | EVEN}: Sets the parity to be used when transmitting FSK data. Example: PARITY EVEN - PLAYWAVE {Filename}: Plays the specified audio file through both the test ports (RJ-11s) and the SPKR jack. Audio files are accessed from the current directory by default. In order to access audio files from other directories, the path must be specified before the filename. Example: PLAYWAVE C:\SYSTEM\Greeting.msg

The Model 3500 supports the playback and recording of audio files in the following format:

Format:Signed PCM File Extension: .msg Sample Rate: 9600 Hz Channels: Mono Resolution: 8-bit

Note: An external application named PLAY.EXE must be present in the directory from which FP.EXE is running in order to use the PLAYWAVE command.


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- POLARITY {NORMAL | REVERSE}: Changes the polarity (i.e., tip and ring) on the simulated line.

Example: POLARITY REVERSE

- RECEIVEFAX {Filename}: Receives a fax from a unit under test and stores the fax with the specified

filename. The RECEIVEFAX command performs all the necessary handshaking and communications protocol in order to receive a fax.

Example:

RECEIVEFAX Testfax * Receives and stores fax in a file named Testfax. FAXTOVGA Testfax * Displays Testfax

Note: An external application named RFAX.EXE must be present in the directory from which FP.EXE is running in order to use the RECEIVEFAX command.

- RECORDWAVE {Filename}{Duration}: Records audio signals on both the test ports (RJ-11s) and the AUDIO IN jack for the specified duration (in seconds). Audio files are stored to the current directory by default. In order to store audio files to other directories, the path must be specified before the filename. Example: RECORDWAVE test.msg 10 * Records audio for 10 seconds and * stores it in a file named test.msg

The Model 3500 supports the playback and recording of audio files in the following format:

Format: Signed PCM File Extension: .MSG Sample Rate: 9600 Hz Channels: Mono Resolution: 8-bit

Note: An external application named RECORD.EXE must be present in the directory from which FP.EXE is running in order to use the RECORDWAVE command.

- RING [Duration]: Generates a ring signal. The duration is measured in ms and cannot exceed 65,535. If no duration is specified, the default value of 2000 mS (2 seconds) applies.


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Examples:

RING * Generates a 2 second ring signal RING 1500 * Generates a 1.5 second ring signal

- RINGFREQ {Num}: Sets the frequency of the ring signal. Valid values range from 20 to 80 Hz.

Example: RINGFREQ 25 * Sets the Ring Frequency to 25 Hz

- RINGLEVEL {Num}: Sets the ring voltage level. Valid values range from 20 to 80 VACrms.

Example: RINGLEVEL 45 * Sets the Ring Level to 45VACrms

- SEND {Expr}: Sends the specified data string as an FSK modem signal. The SEND command is useful for embedding ICLID and VMWI packets following a user-programmable Channel Seizure and Mark Signals. This Command can also be used to generate invalid or incomplete ICLID packets, message headers, and checksums. The data String can be any alphanumeric expression. Non-printable, binary values, such as

the ICLID header, length, and checksum, should be represented as two byte hexadecimal values enclosed in angled brackets. No blanks are allowed in the data string. If a blank is required, it must be represented in hexadecimal format (<20>).

Example:

SEND <0B><04>061215235551234<FF> *SMDF ICLID packet with invalid *checksum

Note: The SEND command leaves the carrier ON. If you need to turn off the carrier following the SEND command, please use the CARRIER OFF command.

The SEND command can automatically compute and send an ICLID checksum. To compute and send a valid ICLID Telcordia or ETSI packet checksum, a ‘#’ should be entered at the end of the data string. To compute and send an invalid Telcordia or ETSI packet checksum, a ‘%’ should be entered at the end of the

data string. SEND CRC calculates and generates the checksum according to the NTT standards for Japan (see below).

Examples:

SEND<04><0F>080303195551234# *send correct checksum SEND<04><0F>080303195551234% *send incorrect checksum


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The SEND command can also compute and send a two-byte CCITT CRC for a previously executed SEND command.

Example: SEND <10> <01> <07><10> <02> <40> <0C> <02> <0A> 0335092111 <10><03>

SEND CRC

Important: SEND CRC must be used when creating scripts for Japan Caller ID.

Note: SEND leaves the carrier ON. The CARRIER OFF command can be used to turn the carrier tone off.

The SEND command can be combined with other script commands to control the duration of the Channel

Seizure, Mark and signaling delays associated with the national implementations of Caller ID based on the ETSI or Telcordia model. The example shown below illustrates the use of the SEND command to simulate the ICLID implementation defined by BT in SIN 227:

Example: MODEM V23

TONE1FREQ 2130 * Set Alert Tone Frequencies and levels TONE2FREQ 2750 TONE1LEVEL -15 RONE2LEVEL -15 POLARITY REVERSE * Reverse line polarity DELAY 125 * Wait for 125 mS

The following command sends the Channel Seizure signal. Each letter U (ASCII 55) generates 10 alternating bits 0101010101 for 8.33 mS. A Channel Seizure signal of 150 mS is equivalent to the transmission of 150 / 8.33 = 18 U’s.

SEND UUUUUUUUUUUUUUUUUU DELAY 60 * Mark for 60 mS.

The following command sends an ICLID message with the following information hard-coded as a string.

* Date & Time: 04/20 15:30 * Number: 01202824698


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* Number WILLIAM CHARLES (note that we use the Hex value of Space <20> * Non-printable bytes are entered with their Hex values as <xx> * The # character at the end of the Send command is an indication to the script * to automatically compute the checksum

SEND<80><28>04201530<02><0B>01202824698<07><0F>WILLIAM<20>CHARLES# DELAY 50 CARRIER OFF * Because SEND command leaves the carrier ON DELAY 200 RING 400 DELAY 200 RING 400 POLARITY NORMAL * Restore polarity to its normal state

- SENDCAS {Duration}: Generates a nominal (i.e., 2130 and 2750 Hz) CPE Alert Tone (CAS) tone for the specified duration. The duration is measured in mS and cannot exceed 65,535. Typical values for the CAS tone are 75 – 85 mS for Telcordia Type II or 90-110 mS for ETSI Dual Tone Alerting Signal (DT-AS). Signal level for each tone and signal-to-noise ratio values are set using the LEVEL and SNR commands. Note: In some ETSI implementations, the DT-AS signal is preceded by a polarity reversal .

Example 1: SENDCAS 80 * Generates a CAS signal for 80 mS

Example 2: POLARITY REVERSE * Start of an ETSI call sequence (line reversal followed * by DT-AS)

DELAY 150 * Must be greater than or equal to 100 mS SENDCAS 100 * Duration of DT-AS should be 100 mS +/-10 mS

DELAY 80 * Delay from end of DT-AS until the start of FSK (must * be greater than or equal to 45 mS)

SEND … * Start of FSK transmission

Note: In order to generate dual tones with varying amplitude levels, frequencies, and twist, use the TONE1FREQ, TONE1LEVEL, TONE2FREQ, TONE2LEVEL, and DUALTONE commands.


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- SENDDTMF {DTMF String}{Tone Duration}{Interdigit Delay}: Generates the DTMF tones that correspond to the specified string according to the defined tone duration and Interdigit delay. The duration is measured in ms and cannot exceed 65,535.

Example:

SendDTMF 5125551234 150 100 * Generates the corresponding DTMF * string with a tone duration of 150 mS

* and Interdigit delay of 100 mS - SENDFAX {Filename}: Sends the specified file in FAX format. Typically used with the MAKECALL to simulate a FAX transmission.

Example: SENDFAX C:\Test\Fax * Transmits the file fax1

Note: An external application named SFAX.EXE must be present in the directory from which 3500MENU.EXE is running in order to use the SENDFAX command.

- SENDFILE {Filename}: Transmits the specified file using Bell 202 (default) or V23 FSK modem. The file may contain a test message or a special non-Caller ID / VMWI file to be downloaded to an external terminal. There is no limitation on the file size or data contents. You can use any standard DOS text or binary editor to generate this file. Data is transmitted at 1200 baud, no parity, and 1 stop bit.

Example: SENDFILE C:\Test\Data1 * Transmits the contents of the file Data1 - SENDSAS {Duration}: Generates the 440 Hz Subscriber Alerting Signal (SAS) tone for the specified duration. The duration is measured in mS and cannot exceed 65,535. Signal level and signal-to-noise ratio values set using the LEVEL and SNR commands apply to the SAS tone.

Example: SENDSAS 300 * Sends a SAS tone for 300 mS

- SINGLE {ICLID}: Sends the specified ICLID as an FSK Single Data Message Format packet. The ICLID parameter can be any data string (e.g., telephone number) or one of two letters currently defined by Telcordia (formerly Bellcore). The ICLID data is preceded by the nominal Channel Seizure (300 bits /250 mS of alternating 1’s


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and 0’s) and Mark (150 mS) signals :

“O” (upper case O) to indicate an out-of-area call with no number information. “P” (upper case P) to indicate a private call with no number information. The required signaling, header, length, date, time and checksum are all automatically appended. The date and time are derived from the PC clock. Example:

SINGLE 5551234 * Call from 555-1234 SINGLE O * Out-of-Area call SINGLE P * Private call

- SPACE {ON | OFF}: Generates an FSK SPACE signal. This command is usually preceded by the MODEM and LEVEL commands.

Example: MODEM V23 * Select V23 Modem mode LEVEL 18 * Signal level is -18 dBm SPACE ON * Turn the Space signal ON DELAY 3000 * Signal duration is 3 seconds SPACE OFF * Turn the Space signal OFF

- SPACEFREQ {Num|+|-}: Setts or increases/decreases the frequency at which the SPACE bits are sent in a VARFSKSEND string. Valid values range from 2000 to 2400 Hz. The Space frequency for Bell 202 systems is typically 2200 +/-22 Hz.

Examples: SPACEFREQ 2180 SPACEFREQ - *Decrease the space frequency by 1Hz - SPACELEVEL {Num}: Sets the signal level at which the SPACE (logical 0) signal is set at in a VARFSKSEND command. Valid values range from 0 to -48 dBm, while the typical range is –12 to –36 dBm. The minus ('-') sign is optional. Example: SPACELEVEL -20 - SPACELEVEL {+ | -}: Increases or decreases the absolute value of the signal level by 1 dB. Example:


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SPACELEVEL + SPACELEVEL - - SPMLEVEL {+/-Num|+|-}:Sets or increases/decreases the signal level at which an SPMTONE is sent. Valid values range from +10 to –38 dBm. The sign must be specified.

Example: SPMLEVEL -20 * Sets the SPMLEVEL to – 20dBm SPMLEVEL +10 * Sets the SPMLEVEL to +10dBm - SPMTONE {Freq}{Duration}: Generates an SPM tone according to the defined frequency and duration. Valid frequency values range from 10000 to 18000 Hz. The duration is measured in ms and cannot exceed 65,535. The tone level is set using the SPMLEVEL command.

Example: SPMTONE 12000 1000 * Generates a 12kHz SPM tone for 1 second - SNR {Num}: Sets the noise generator to provide the specified signal-to-noise ratio. Valid values range from 0 to 48 dB. Please use the NOISE command to turn off the noise generator or to program it.

Example: LEVEL –22 * Sets signal level at -22 dBm SNR 30 * Sets the signal-to-noise ratio to 30 dB

- SNR {+ | -}: Increments or decrements the signal-to-noise ratio by 1 dB. - STARTCLI: Begins the definition of a BT-based Calling Line Identification (CLI) packet. Message parameters are defined using additional script commands as outlined below. The duration of the Channel Seizure signal is 180 bits/150 mS, while the Mark duration is 60 mS.

Example: STARTCLI parameter . . . parameter ENDCLI

The ENDCLI command generates the CLI packet based on the parameter definitions (see the sample script, UK_BT.SCR).


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The following script commands are used to define the parameters in a BT-based CLI packet. These commands are always used in conjunction with a STARTCLI and ENDCLI command. For a description of the data parameters used in these commands, please refer to the appropriate BT or ETSI specification. - DATETIME {Num}: Date and time in the form MMDDHHMM. Time is based on a 24-hour clock.

Example: DATETIME 11071530 * Nov 7, 3:30 PM

- CALLING {Num}: Calling number.

Example: CALLING 01202824698

- CALLED {Num}: Called number.

Example: CALLED 01202336479

- REASON {Expr}: Reason for number absence.

Example: REASON O * Out of Area

- NAME {Expr}: Calling name information. Spaces are entered as <20>.

Example: NAME JONES<20>STEVE

- NAMEREASON {Expr}: Reason for name absence.

Example: NAMEREASON P * Private - STARTCWCID: Begins the definition of a Telcordia-based Caller ID on Call Waiting (Type II) packet. Message parameters are defined using the same script commands used to define a MDMF packet (see MULTIPLE) . Please note that the ICLID data is preceded by a nominal Mark signal of only 80 bits and no Channel Seizure).

Example STARTCWCID parameter . . . parameter ENDCWCID

The ENDCWCID command generates the Caller ID on Call Waiting packet based on the parameter definitions.


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- SWITCHTONE {1 | 2 | 3 | 4 }{ON | OFF}: Activates and deactivates the specified tone generator. The frequency and level of the tone are set using the TONE#LEVEL and TONE#FREQ script commands (where # = 1-4). Once activated, the tone will continue until the tone is deactivated. Example: TONE1LEVEL 30 TONE1FREQ 2150

SWITCHTONE 1 ON DELAY 10000 SWITCHTONE 1 OFF

Note: The applicable TONE#LEVEL and TONE#FREQ commands must precede the SWITCHTONE command in the script.

TONE1 {Duration}: Generates a tone for the specified duration using the first tone generator (#1). .

The duration is measured in mS and cannot exceed 65,535.

The frequency and level of the tone are set using the TONE1LEVEL and

TONE1FREQ script commands.

Example: TONE1 2000 * Generates tone for 2000 mS

Note: The TONE1LEVEL and TONE1FREQ commands must precede the TONE1 command in the script. If no TONE1FREQ command is present, the tone generator will assume 2130 Hz (i.e., CAS tone 1). If no TONE1LEVEL command is present, the tone generator will assume -20 dBm.

- TONE2 {Duration}: Generates a tone for the specified duration using the second tone generator (#2). The duration is measured in ms and cannot exceed 65,535. The frequency and level of the tone are set using the TONE2LEVEL and TONE2FREQ script commands. Example: TONE2 2000 * Generates tone for 2000 mS - TONE#FREQ {Num|+|-}: Sets or increases/decreases the frequency for tones generated using the corresponding tone generator (where # = 1-4). Valid values range from 10 to 4800 Hz.


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Example: TONE1FREQ 1250 * Sets frequency of tone generator #1 at 1250Hz

TONE1FREQ + * Increases the frequency of tone generator #1 by 1Hz - TONE#LEVEL {Num}: Sets the amplitude for tones generated using the corresponding tone generator (where # = 1-4). Valid values range from 0 to -48 dBm. The minus ('-') sign is optional.

Example:

TONE1LEVEL -22 * Sets amplitude of tone generator #1 at -22dBm

Note: Signal levels expressed in dBm assume a 600-ohm impedance on the line. If this is not the case (e.g. Caller ID transmission into a high-impedance load), the actual signal placed on the line will vary, depending on the load. The signal level into a high-impedance load will be about 6 dB higher than the programmed dBm value.

- TONE#LEVEL {+ | -}: Increases or decreases the absolute value of the signal level by 1 dB. Example: TONE1LEVEL + TONE1LEVEL –

- VARBAUD {Baud rate|+|-}: Sets or increases/decreases the baud rate to be used for FSK signals generated using the VARFSKSEND command. Valid values range from 1000 to 1400, while typical values for Bell 202 systems are 1200 +/- 12. Example: VARBAUD 1210 - VARFSKCARRIER {ON | OFF}: Turns the CARRIER signal ON and OFF at the frequency defined in a previous MARKFREQ command. Example: VARFSKCARRIER ON - VARFSKSEND {String}: Sends the specified data string as an FSK modem signal using the FSK baud rate, Mark frequencies and levels, and Space frequencies and levels defined using the VARBAUD, MARKFREQ, MARKLEVEL, SPACEFREQ, and SPACELEVEL commands, respectively.


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Example: VARFSKSEND <04><0F>050510305551234#

Note: The VARBAUD, MARKFREQ, MARKLEVEL, SPACEFREQ, and SPACELEVEL commands must precede the VARFSKSEND command in the script. The VARFSKSEND leaves the carrier ON. If you want to turn off the carrier, please use the VARFSKCARRIER OFF command.

Important: VARFSKSEND leaves the carrier on. The “VARFSKCARRIER OFF: command can be used to turn the carrier off.

- VARFSKSPACE {ON | OFF}: Turns the SPACE signal (break) ON and OFF at the frequency defined in a previous SPACEFREQ command.

Example: VARFSKSPACE OFF III) MEASUREMENT, LOGIC, AND SYSTEM COMMANDS These commands allow the user to control selected PC peripherals, to specify loops, and time delays. - BEEP: Generates a beep using the speaker on the 3500 PC subsystem. - CLOSECOMM: Closes the COM port opened by a previous OPENCOMM command and disables data collection at the COM port (see READCOMM).

Example:

CLOSECOMM

Note: The 3500 is equipped with two standard PC-type COM ports. COM1 is free and accessible from the back of the unit, while COM2 is reserved to communicate with the front panel. Please do NOT try to use COM2, unless you want to talk directly to the front panel module through its published command set interface. Additional COM ports may be added to the 3500 by using commercially available serial communication modules for the PC/104 bus.

- DELAY {Duration}: Introduces a delay of the specified duration. The duration is measured in mS and cannot exceed 65,535. For longer delays, use multiple DELAY commands.

Example: DELAY 1000 * Waits for 1 second before going to the next command

- DISPLAY {String}: Displays the character string on the PC monitor. Often used with the PAUSE command.


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Example: DISPLAY Press any key to continue PAUSE * Waits for the user to press a key - DISPLAYDTMF: Displays detected DTMF digits on the PC monitor and the Front Panel until the user presses a key on the keyboard. Example: DISPLAYDTMF - DISPLAYPULSE: Displays the digits associated with detected pulses on the PC monitor and Front Panel until the user presses a key on the keyboard. Example: WAITFOROFFHOOK DISPLAY Lift Handset and begin dialing

DISPLAYPULSE

- DOCTOFAX {Filename}: Converts the specified text file into FAX format (.f01)so the file may be sent using the SENDFAX command.

Example: DOCTOFAX Testfax.txt * Converts Testfax.txt into FAX format.

Note: An external application named DOCTOFAX.EXE and a file named FAX.FNT must be present in the current directory in order to utilize the DOCTOFAX command.

- DTMFLOWFREQRANGE {Min, Max}: Sets the acceptable minimum and maximum frequencies for the

DTMF low frequency tones. IMPORTANT: This command requires

that the optional DSP/104 card be installed in the 3500.

Example: DTMFLOWFREQRANGE 690 710 - DTMFLOWLEVELRANGE {Min, Max}: Sets the acceptable minimum and maximum levels for the DTMF low frequency tones. IMPORTANT: This command requires that the optional DSP/104 card be installed in the 3500. Example: DTMFLOWLEVELRANGE -11 -1


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- DTMFHIGHFREQRANGE {MIN,MAX}: Sets the acceptable minimum and maximum frequencies for the DTMF high frequency tones. IMPORTANT:This command requires that the optional DSP/104 card be installed in the 3500. Example: DTMFHIGHFREQRANGE 1210 1230 - DTMFHIGHLEVELRANGE {MIN,MAX}: Sets the acceptable minimum and maximum levels for the DTMF high frequency tones. IMPORTANT: This command requires that the optional DSP/104 card be installed in the 3500. Example: DTMFHIGHLEVELRANGE -11 –1 - ENDIF: Indicates the end of a group of commands to be executed based on a preceding IF command. - ENDLOOP: Indicates the end of a group of commands to be repeated according to the number of iterations specified in a preceding LOOP command.

Example:

LOOP 10 * Loops for 10 iterations script command . . . script command

ENDLOOP - ENDTIMELOOP : Indicates the end of a group of commands to be executed during the period specified in a preceding TIMELOOP command.

Example: TIMELOOP 50 * Loops for 500 minutes script command . . . script command ENDTIMELOOP - FAXTOVGA {Filename}: Displays FAX format files on the PC monitor. The document will automatically


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scroll from top (first page) to bottom (last page).

Example: FAXTOVGA TestFax * Displays Testfax.f01, Testfax.f02, etc.. (all pages)

Note: An external application named FAXVGA.EXE and data files named HUFFMAN.DAT, HUFFMANB.DAT, HUFFMANW.DAT, must be present in the directory from which 3500MENU.EXE is running in order to use the FAXTOVGA command.

- IF {PASS | FAIL}: Takes one parameter: PASS or FAIL. PASS and FAIL conditions are set by the last MEASUREPULSE or MEASUREDTMF command preceding the IF command. If the last command set the FAIL flag, then any commands enclosed between IF FAIL and ENDIF will be executed, otherwise these commands would be skipped. Similarly, if the last command set the PASS flag, then any commands enclosed between IF PASS and ENDIF will be executed, otherwise these commands would be skipped.

Example1:

DISPLAYPASSFAIL PULSEMAKERANGE 35 45 PULSEBREAKRANGE 55 65 PULSEPPSRANGE 9 11 MEASUREPULSE 1 * Measures pulse parameters for a single digit IF FAIL * If the above pulse limits are not met, the following * commands will run until the ENDIF command is * encountered BEEP DISPLAY Pulse Measurement failed. Press any key to continue PAUSE ENDIF Example2: DISPLAYPASSFAIL DTMFLOWLEVELRANGE -5 –1 * Acceptable low tone amplitude range DTMFHIGHLEVELRANGE -7 -14 * Acceptable high tone amplitude range DTMFLOWFREQRANGE 690 710 * Acceptable low tone frequency range for * DTMF 1 DTMFHIGHFREQRANGE 1210 1230 * Acceptable high tone frequency range for DTMF 1 MEASUREDTMF 1 * Measures DTMF parameters for a single


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* digit IF PASS * If the above DTMF limits are met, the f * following commands will run until the

* ENDIF command is encountered DISPLAY DTMF Measurement Passed. Press any key to continue PAUSE ENDIF

- LOOP {Num}: Repeats the execution of a command or group of commands, according to the specified number of iterations. The ENDLOOP command indicates the end of the commands to be repeated. The maximum length of a loop is 65535.

Example:

LOOP 10 * Loops for 10 iterations Script command . . . script command

ENDLOOP

The script language supports up to 10 nested loops. When executing a script with nested loops, the depth of each loop will be displayed when the corresponding ENDLOOP command is encountered.

Example: LOOP 5 * First loop begins SNR 30 LEVEL -20 LOOP 3 * Second loop begins SNR+ LOOP 5 * Third loop begins LEVEL - ENDLOOP * Third loop ends ENDLOOP * Second loop ends ENDLOOP * First loop ends During execution, the ENDLOOP commands show the loops that they represent between parentheses.

For example, the first ENDLOOP command in the script example will be flagged as ENDLOOP (3) - MEASUREDTMF [Num]: Performs DTMF Digit Analysis for the specified number of digits, after which it will proceed to the next command. A parameter of 0 or no parameter will keep analyzing DTMF digits until the user presses ESC from a keyboard, or FAIL


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from the Front Panel, or goes on-hook. When called, MEASUREDTMF will display any detected DTMF digits along with the frequency and amplitudes of each one of the dual tones on the Front Panel and on the optional VGA screen. MEASUREDTMF will look at the defined DTMF ranges and sets a PASS or FAIL flag that can be used with the IF command (see DTMF LOW LEVEL RANGE) DTMFHIGHLEVELRANGE, DTMFLOWFREQRANGE, AND DTMFHIGHFREQRANGE commands). IMPORTANT: This command requires that the optional DSP/104 card be installed in the 3500. Example: WAITFOROFFHOOK MEASUREDTMF 3 Dialing 1 2 3 from a telephone would typically display values such as: Digit LG Freq LG Level HG Freq HG Level Tone Duration Interdigit Duration Twist (0-9,*,#,A-D) Hz dBm Hz dBm mS mS dB ------------------------------------------------------------------------------------------------------------------------------------ 1 699 -5.6 1210 -3.4 132 2321 2.2 2 699 -5.5 1339 -3.3 144 351 2.2 3 698 -5.6 1482 -3.3 144 189 2.3 - MEASUREPULSE [Num]: This command will display the specified number of dialed pulses along with the Pulse-Per-Second and Break/Make Ratio information. It terminates after the specified number of pulses are received, or when the user goes on-hook or presses ESC from the external keyboard. A parameter of 0 or no parameter will keep measuring pulses until the user goes on-hook, or presses ESC. MEASUREPULSE will look at the defined PPS and %Break ranges and sets a PASS or FAIL flag that can be used with the IF command.

Example: WRITELCD1 Lift Handset and WRITELCD2 Begin Pulse Dialing

WAITFOROFFHOOK MEASUREPULSE 1 Sample Response: Num Break/Make PPS %Break (0-9) mS ----------------------- ------------------------------------------------------------------ 5 57/37 57/38 57/38 57/37 57/- 10.6 60.3


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- OPENCOMM {Port Number} {Baud Rate} {Parity}: Opens a COM port and sets an interrupt routine that receives and buffers all data received on the COM port. Valid port numbers, baud rates, and parity values are as follows:

Port number: 1 or 2

Baud Rate: 300, 600, 1200, 2400, 4800, 9600, 19200 Parity N, O, or E (None, Odd, or Even)

Note: The COM port is always set for one (1) STOP bit. Example:

OPENCOMM 1 9600 N Note: The 3500 is equipped with two standard PC-type COM ports. COM1 is free and accessible from the back of the unit, while COM2 is reserved to communicate with the front panel. Please do NOT try to use COM2, unless you want to talk directly to the front panel module through its published command set interface. Additional COM ports may be added to the 3500 by using off-the-shelf serial communication modules for the PC/104 bus.

- OUTPUT {Address} {Byte}: Outputs a byte to the specified IO address. All values are decimal. Special care must be taken not to conflict with existing IO addresses on the 3500 PC subsystem. Please contact Rochelle Communications, Inc. if you want to verify that a particular IO address is available.

Example: OUTPUT 1000 150 * Outputs the byte 150 to I/O address 1000

- PAUSE: Pauses script execution until the user presses a key. Often used with the DISPLAY command Example: PAUSE DISPLAY Press any key to continue


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- PULSEBREAKRANGE {Min, Max}: Sets the minimum and maximum duration for a valid pulse break, Expressed in mS.

Example: PULSEBREAKRANGE 55 65 - PULSEMAKERANGE {Min, Max}: Sets the minimum and maximum duration for a valid pulse make, expressed in mS.

Example: PULSEMAKERANGE 35 45 - PULSEPPSRANGE {Min, Max}: Sets the minimum and maximum number of valid pulses per seconds. Valid range is 1 to 20. Example: PULSEPPSRANGE 9 11 - READCOMM [Filename]: Displays all data received on the COM port specified in a previous OPENCOMM command. Data can also be written to or appended to a file by indicating a filename after the command. Examples: READCOMM * Displays info on screen

READCOMM C:\Testfile * Appends data to a file named Testfile - READMETER {LINEAC | LINEDC}: Measures the AC or DC voltage on the simulated line. The measured value is displayed on the PC monitor. Example: READMETER LINEDC * Displays the measured DC voltage AUDIOIN ON READMETER LINEAC * Displays the measured AC voltage - TIMELOOP {Duration}: Repeats the execution of a command or group of commands for the specified duration. The duration is in minutes. While the loop is executing, the remaining time is displayed in the top left corner of the PC monitor. The ENDTIMELOOP command indicates the end of the commands to be repeated.

Example: TIMELOOP 50 * Loops for 500 minutes script command .


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. . script command ENDTIMELOOP - WAITFORCALL: Pauses script execution until the device under test goes off-hook and dials a number string ending with a ‘#’. This command is usually used with the RECEIVEFAX command.

Example:

WAITFORCALL * Waits for the device under test to go off-hook * and dial a number ending with a #.

RECEIVEFAX Testfax * Receives a fax from the device under test and saves * it in a file named Testfax.

- WAITFOROFFHOOK [timeout]: Pauses script execution until the device under test goes off-hook (e.g., the user lifts the handset), or the user presses ESC to abort the script. An optional timeout parameters (1 – 65535) mS can be specified. - WAITFORONHOOK [timeout]: Pauses script execution until the device under test goes on-hook (e.g., the user hangs up) Waits for the phone to go on-hook, or until the user presses ESC to abort the script. An optional timeout parameters (1 – 65535) mS can be specified. - WRITECOMM {String}: Writes the specified string to the COM port specified in a previous OPENCOMM command. A separate WRITECOMM command must be included for each line of data as the command will only read to the end of the line (i.e., until a carriage return). Binary data should be enclosed between angle brackets in hex format: for example, a carriage return is <0D>.

Example:

WRITECOMM Hello World <0D><0A> WRITECOMM AT <0D> WRITECOMM 1

- WRITEFILE {Filename} {Text String}: Writes the text string to the specified file. If a file with the

specified name does not exist, one is created. If the file exists, the text is appended as a new line.


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Example: WRITEFILE Testfile.txt The current SNR is 20

Note: The filename and text string should not exceed 78 characters. For example, if the filename (including the extension) is 10 characters long, the text string must be less than or equal to 68 characters.

- DISPLAYPASSFAIL: In the 3500MENU.EXE, it causes script to add up all pass and fail results and display them on the PC monitor. In FP.EXE, it causes the PASS and FAIL counters on the front panel to reflect the total number of passed and failed tests.

MODEL 3500 FRONT PANEL SCRIPTS

Caller ID Telephone Production Tester Script Language

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INTRODUCTION The Model 3500 is pre-loaded with sample scripts and other batch files that can be executed from the Front Panel. For instance, pressing the TEST3 button while in MODE1 will prompt the 3500 to look for and run TEST3 in the C:\MODE1 subdirectory. Priority is given based on the following file extensions: TEST3.CMP -- Compiled script TEST3.BAT DOS batch file program TEST3.EXE DOS executable TEST3.SCR Uncompiled script file Users should rename any applications or script files that they wish to run to correspond to the push button name. For instance, MEASURE.EXE should be renamed TEST3.EXE and stored in the C:\MODE1 subdirectory if the user wants to associate it with the TEST# button. Please keep in mind that there may already be another TEST3 file in the selected directory and that it may have a higher priority. For instance, if both TEST3.CMP and TEST3.SCR exist in the C:\MODE1 subdirectory, and the user edits and updates TEST3.SCR, he/she must re-compile that script flle, or rename the old TEST3.CMP file. The table below lists the sample scripts that are pre-loaded on the subdirectories that are associated with the Front Panel:

Mode Button Title

1 TEST 1 5 Type I Caller ID Calls.

1 TEST 2 5 Type I Caller ID Calls with variable FSK Levels and SNR

1 TEST 3 Ring Level and Frequency Test

1 TEST 4 Type II Caller ID Test

1 TEST 5 Callback (Redial) Feature Test

1 TEST 6 Audio Example

1 TEST7 DTMF Digit Analysis (Requires DSP/104 Card)

2 TEST 1 DTMF Generation Test

2 TEST 2 Ring Detect Tests

2 TEST 3 Caller ID Type I and Type II Tests

2 TEST 4 Dial Pulse (PASS/FAIL)

2 TEST 5 DTMF Digit Test (PASS/FAIL) - Requires DSP/104 Card

2 TEST 6 BT Caller ID Simulation


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2 TEST8 General Burn-in Test

3 TEST 1 Visual Message Waiting Test

3 TEST 2 FAX Send and Receive Test

3 TEST 3 Japan Caller ID

3 TEST 4 Answering Machine – DTMF Detection and Rejection

3 TEST 5 Answering Machine – Dial Tone Detection

3 TEST 6 UK Caller ID and Answering Machine demo


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MODE 1: TEST 1 * TITLE: 5 Calls Test DATE: 7 July 1998 * This script generates 5 calls with Multiple Message Caller ID. * The name field info corresponds to the call number to allow operators * to quickly determine which, if any, calls were missed. The unit under * test should display 5 new calls at the completion of the test. A script * such as this one would typically include 50 or more calls. The script * tests the units memory and determines if the unit is missing calls. ** Initialization ClearLCD * Clears LCD WriteLcd1 5 CALLS TEST * Displays test title on LCD WriteLcd2 Type I Tests LedBlink 1 * Causes the LED on TEST 1 button to blink MODEM BELL202 * Sets FSK Modem Type to Bell 202 LEVEL 20 * Sets FSK Signal Level to -20 dBm SNR 40 * Sets Signal-to-Noise Ratio at 40 dB DELAY 2000 * Delay for 2 seconds ** Start of call simulation ClearLcd * Clears LCD WriteLcd1 CALL ONE * Displays CALL ONE on LCD RING 1000 * Ring for 1 second DELAY 500 * Delay for 500 mS MULTIPLE * Start of Multiple Message Caller ID packet DateTime 07061345 * Sets Date and Time parameter to 6 July at 1:45 PM ICLID 5125551212 * Sets Caller ID Number parameter NAME ONE * Sets Caller ID Name parameter ENDMULTIPLE * End of Multiple Message Caller ID packet DELAY 5000 * Delay for 5 second * ClearLcd WriteLcd1 CALL TWO RING 1000 DELAY 500 MULTIPLE ICLID 5125551212 NAME TWO ENDMULTIPLE DELAY 5000 *


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ClearLcd WriteLcd1 CALL THREE RING 1000 DELAY 500 MULTIPLE ICLID 5125551212 NAME THREE ENDMULTIPLE DELAY 5000 * ClearLcd WriteLcd1 CALL FOUR RING 1000 DELAY 500 MULTIPLE ICLID 5125551212 NAME FOUR ENDMULTIPLE DELAY 5000 * ClearLcd WriteLcd1 CALL FIVE RING 1000 DELAY 500 MULTIPLE ICLID 5125551212 NAME FIVE ENDMULTIPLE DELAY 5000 * ClearLcd * Clears the LCD WriteLcd1 TEST COMPLETE * Displays TEST COMPLETE on LCD LEDOFF 1 * Turns off the LED on TEST 1 button ** End of script


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MODE 1: TEST 2 * TITLE: Calls w/ various FSK signal levels and Signal-to-Noise Ratios. DATE: 7 July 1998 * This script generates 5 Multiple Message Caller ID calls with varying FSK signal levels * and Signal-to-Noise Ratios. The name field info for each call indicates the settings * for FSK Level and SNR for easy reference. ** Initialization ClearLCD * Clears the LCD WriteLcd1 CALLS W/ VARIOUS * Displays the test title on the LCD (Line 1) WriteLcd2 LEVELS AND SNR * Displays the test title on the LCD (Line 2) LEDBlink 2 * Causes the LED on the TEST 2 button to blink DELAY 3000 * Delay for 3 seconds ClearLCD * Clears the LCD ** First Call WriteLcd1 CALL ONE * Displays CALL ONE on the LCD (Line 1) WriteLcd2 LEVEL:-5 SNR:40 * Displays the FSK level and the SNR on the LCD (Line 2) ** Set Level and SNR Level 5 * Sets the FSK signal level to -5 dBm SNR 40 * Sets the Signal-to-Noise ratio to 40 dB ** Start of call sequence RING 500 * Ring for 500 mS Delay 500 * Delay for 500 mS MULTIPLE * Start of Multiple Message Caller ID packet DateTime 06151345 * Sets Date and Time parameter to 15 June at 1:45 PM ICLID 6175556789 * Sets Caller ID Number parameter NAME LVL5<20>SNR40 Sets Caller ID Name parameter (Hex 20=space) ENDMULTIPLE * End of Multiple Message Caller ID packet Delay 1000 * Delay for 1 second ** Second Call ClearLCD WriteLcd1 CALL TWO WriteLcd2 LEVEL:-15 SNR:25 Level 15 * Sets the FSK signal level to -15 dBm


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SNR 25 * Sets the Signal-to-Noise ratio to 25 dB ** Start of call sequence RING 500 Delay 500 MULTIPLE DateTime 06151345 ICLID 6175556789 NAME LVL15<20>SNR25 ENDMULTIPLE Delay 1000 ** Third Call ClearLCD WriteLcd1 CALL THREE WriteLcd2 LEVEL:-15 SNR:35 ** Set Level and SNR Level 15 * Sets the FSK signal level to -15 dBm SNR 35 * Sets the Signal-to-Noise ratio to 35 dB ** Start of call sequence RING 500 Delay 500 MULTIPLE DateTime 06151348 ICLID 7135551234 NAME LVL15<20>SNR35 ENDMULTIPLE Delay 1000 ** Fourth Call ClearLCD WriteLcd1 CALL FOUR WriteLcd2 LEVEL:-25 SNR:25 ** Set Level and SNR Level 25 * Sets the FSK signal level to -25 dBm SNR 25 * Sets the Signal-to-Noise ratio to 25 dB


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** Start of call sequence RING 500 Delay 500 MULTIPLE DateTime 06151405 ICLID 3055551234 NAME LVL25<20>SNR25 ENDMULTIPLE Delay 1000 ** Fifth Call ClearLCD WriteLcd1 CALL FIVE WriteLcd2 LEVEL:-35 SNR:18 ** Set Level and SNR Level 35 * Sets the FSK signal level to -35 dBm SNR 18 * Set the Signal-to-Noise ratio to 18 dB ** Start of call sequence RING 500 Delay 500 MULTIPLE DateTime 06151405 ICLID 6175551234 NAME LVL35<20>SNR18 ENDMULTIPLE Delay 1000 ClearLCD WriteLcd1 TEST COMPLETE * Displays TEST COMPLETE on the LCD (Line 1) LEDOFF 2 * Turns the LED on the TEST 2 button off ** End of script


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MODE 1: TEST 3 * TITLE: Ring Level and Frequency Test DATE: 7 July 1998 * This script generates 5 Multiple Message Caller ID calls with varying * ring levels and frequencies. The name field info for each call indicates * the settings for Ring Level and Frequency for easy reference. ** Initialization Level 20 * Sets the FSK signal level to -20 dBm SNR 30 * Sets the Signal-to-Noise Ratio to 30 dB Polarity Normal * Sets Polarity to Normal ClearLCD * Clears the LCD LEDBlink 3 * Causes the LED on the TEST 3 button to blink WriteLCD1 RING LEVEL & FREQ * Displays the test title on the LCD (Line 1) WriteLcd2 TEST * Displays the test title on the LCD (Line 2) Delay 2000 * Delay for 2 seconds *** First Call WriteLCD1 LOW RING #1 * Displays LOW RING #1 on the LCD (Line 1) WriteLcd2 LEVEL: 35VACrms * Displays LEVEL: 35 VACrms on the LCD (Line 2) ** Set Level RINGLEVEL 35 * Sets the Ring Level to 35 VACrms ** Begin Call Sequence RING 1000 * Ring for 1 second Delay 500 * Delay for 500 mS MULTIPLE * Start of Multiple Message Caller ID packet DateTime 06151505 * Sets Date and Time parameter to 15 June at 3:05PM * (MMDDHHMM) MULTIPLE ICLID 5123398188 * Sets the Caller ID Number parameter NAME RINGLVL<20>35 * Sets the Caller ID Name parameter ENDMULTIPLE * End of Multiple Message Caller ID packet *** Second Call


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Delay 2000 ClearLCD WriteLcd1 LOW RING #2 WriteLCD2 LEVEL: 25VACrms ** Set Level RINGLEVEL 25 * Sets the Ring Level to 25 VACrms ** Begin Call Sequence RING 1000 Delay 500 MULTIPLE DateTime 06151508 ICLID 2125551234 NAME RINGLVL<20>25 ENDMULTIPLE *** Third Call Delay 2000 ClearLCD WriteLCD1 HIGH RING #1 WriteLCD2 LEVEL: 70VACrms ** Set Level RINGLEVEL 70 * Sets the Ring Level to 70 VACrms ** Begin Call Sequence RING 1000 Delay 500 MULTIPLE DateTime 06151510 ICLID 3035551234 NAME RINGLVL<20>70 ENDMULTIPLE *** Fourth Call Delay 2000 ClearLCD WriteLCD1 HIGH RING #2


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WriteLCD2 LEVEL: 80VACrms ** Set Level RINGLEVEL 80 * Sets the Ring Level to 80 VACrms ** Begin Call Sequence RING 1000 Delay 500 MULTIPLE DateTime 06151515 ICLID 3065556432 NAME RINGLVL<20>80 ENDMULTIPLE *** Fifth Call Delay 2000 ClearLCD WriteLCD1 LOW RING FREQ WriteLCD2 FREQ: 20 Hz ** Set Frequency (Set Level back to default) RINGFREQ 20 * Sets the Ring Frequency to 20 Hz RINGLEVEL 50 ** Begin Call Sequence RING 1000 Delay 500 MULTIPLE DateTime 06151520 ICLID 7085556432 NAME RINGFREQ<20>20 ENDMULTIPLE ClearLCD WriteLcd1 TEST COMPLETE * Displays TEST COMPLETE on LCD (Line 1) LEDOFF 3 * Turns the LED on the TEST 3 button off *****END SCRIPT


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MODE 1 TEST 4 ** TITLE: Type II Caller ID Test DATE: 7 July 1998 ** This script allows the user to simulate a Type-II Caller ID on ** Call Waiting message. Critical timing parameters and signal levels ** are programmable. ** Initialization ClearLCD * Clears LCD WriteLCD1 TYPE II CALLER ID * Displays test title on LCD (Line 1) WriteLCD2 TEST * Displays test title on LCD (Line 2) LedBlink 4 * Causes the LED on the TEST 4 button to blink Delay 2000 * Delay for 2 seconds MODEM BELL202 * Selects Bell 202 Modem Type Level 20 * Sets FSK Signal Level to -20 dBm SNR 30 * Sets Signal-to-Noise Ratio to 30 dB Tone1freq 2130 * Defines CAS Tone Frequency and Amplitude (Tone 1) Tone2freq 2750 * Defines CAS Tone Frequency and Amplitude (Tone 2) ** Lift Handset to receive Type II Caller ID ClearLCD WriteLCD1 LIFT HANDSET * Displays LIFT HANDSET on LCD (Line 1) WriteLCD2 PRESS FAIL TO ABORT * Displays PRESS FAIL TO ABORT on LCD (Line 2) WaitForOffHook * Waits for operator to lift handset LineCurrent 40 * Sets Line Current to 40 mA *** Test 1 ClearLCD WriteLcd1 TYPE II TEST 1 WriteLcd2 CAS = -10, -15 dBm Delay 3000 ** Set CAS Levels Tone1Level 10 * Defines CAS Tone Level (Tone 1) Tone2Level 15 * Defines CAS Tone Level (Tone 2) ** Begin Sequence


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SendSAS 300 * Generate Call Waiting SAS Alerting Signal for 300 mS Dualtone 80 * Generate CAS tone (2130Hz and 2750Hz) for 80 mS DtmfAck D * Wait for CPE to send ack signal (DTMF D) -- function * returns approx. 40 mS after the end of the DTMF tone * is detected DELAY 40 * Delay for an additional 40 mS (80 mS from DTMF D) CARRIER ON * Turn FSK Modem Carrier on Delay 60 * Delay for 60 mS StartCWCID * Start of CWCID packet ICLID 7035558753 * Sets Caller ID Number parameter NAME CASLVL<20>-10,-15 * Sets Caller ID Name parameter (Hex 20=space) EndCWCID * End of CWCID packet *** Test 2 Delay 2000 ClearLCD WriteLcd1 TYPE II TEST 2 WriteLcd2 CAS = -15, -10 dBm ** Set CAS Levels Tone1Level 15 Tone2Level 10 ** Begin Sequence SendSAS 300 Dualtone 80 DtmfAck D DELAY 40 CARRIER ON Delay 60 StartCWCID ICLID 6085558753 NAME CASLVL<20>-15,-10 EndCWCID *** Test 3 Delay 2000 ClearLCD


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WriteLcd1 TYPE II TEST 3 WriteLcd2 CAS = -20, -15 dBm ** Set CAS Levels Tone1Level 20 Tone2Level 15 ** Begin Sequence SendSAS 300 Dualtone 80 DtmfAck D DELAY 40 CARRIER ON Delay 60 StartCWCID ICLID 9032465555 NAME CASLVL<20>-20,-15 EndCWCID *** Test 4 Delay 2000 ClearLCD WriteLcd1 TYPE II TEST 4 WriteLcd2 CAS = -18, -20 dBm ** Set CAS Levels Tone1Level 18 Tone2Level 20 ** Begin Sequence SendSAS 300 Dualtone 80 DtmfAck D DELAY 40 CARRIER ON Delay 60 StartCWCID DateTime 04151405 ICLID 2145551234 NAME CASLVL<20>-18,-20 EndCWCID


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*** Test 5 Delay 2000 ClearLCD WriteLcd1 TYPE II TEST 5 WriteLcd2 CAS = -20, -25 dBm ** Set CAS Levels Tone1Level 20 Tone2Level 25 ** Begin Sequence SendSAS 300 Dualtone 80 DtmfAck D DELAY 40 CARRIER ON Delay 60 StartCWCID ICLID 8045556789 NAME CASLVL<20>-20,-25 EndCWCID *** Test 6 Delay 2000 ClearLCD WriteLcd1 TYPE II TEST 6 WriteLcd2 CAS = -25, -25 dBm ** Set CAS Levels Tone1Level 25 Tone2Level 25 ** Begin Sequence SendSAS 300 Dualtone 80 DtmfAck D DELAY 40 CARRIER ON Delay 60


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StartCWCID ICLID 9045554321 NAME CASLVL<20>-25,-25 EndCWCID ClearLCD * Clears LCD WriteLCD1 TEST COMPLETE * Displays TEST COMPLETE on LCD (Line 1) LEDOFF 4 * Turns the LED on the TEST 4 button off LineCurrent 10 * Sets Line Current to 10 mA ** End of script


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MODE 1 TEST 5 * TITLE: Callback Feature Test DATE: 7 July 1998 * This script tests the callback feature of such equipped Caller ID units. * A single message Caller ID call is first received. The operator is then * instructed to press the CallBack/Redial button. The DTMF digits are compared * to the known Caller ID digits sent. ** Initialization ClearLcd * Clears the LCD WriteLcd1 CALLBACK FEATURE * Displays the test title on the LCD (Line 1) WriteLCD2 TEST * Displays the test title on the LCD (Line 2) LEDBlink 5 * Causes the LED on the TEST 5 button to blink Delay 1000 * Delay for 1 second Level 20 * Sets the FSK Signal Level to 20 dBm SNR 30 * Sets the Signal-to-Noise Ratio to 30 dB *** Single Message Caller ID sent to unit ClearLCD WriteLCD1 SEND CALLER ID * Displays SEND CALLER ID on LCD (Line 1) ** Begin Call Sequence RING 500 * Ring for 500 mS DELAY 500 * Delay for 500 mS SINGLE 6781234 * Define Single Message Caller ID packet *** CallBack ** Set Dial Tone Frequency Tone1Freq 350 * Defines Dial Tone Frequency (Tone 1) Tone2Freq 440 * Defines Dial Tone Frequency (Tone 2) ** Begin Sequence DELAY 2000 * Delay for 2 seconds ClearLCD * Clears LCD


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WriteLCD1 PRESS CALLBACK * Displays PRESS CALLBACK on the LCD (Line 1) Noise Off * Turn noise off WaitForOffHook * Waits for the unit to go off-hook LineCurrent 40 * Sets the Line Current to 40 mA SwitchTone 1 ON * Turns on Dial Tone (Tone 1) SwitchTone 2 ON * Turns on Dial Tone (Tone 2) WriteLcd1 * Clears LCD line 1 so that digits may echo *** GetDtmfStr receives, compares, and displays (echoes) DTMF digit GetDtmfStr 6 * Receives first digit so that dial tone can then be terminated SwitchTone 1 OFF * Turns off Dial Tone (Tone 1) SwitchTone 2 OFF * Turns off Dial Tone (Tone 2) GetDtmfStr 781234 * Receives and echoes remainder of DTMF string DELAY 3000 * Delay for 3 seconds ClearLcd WriteLcd1 CALLBACK SUCCESSFUL * Displays CALLBACK SUCCESSFUL on LCD (Line 1) DELAY 1500 * Delay for 1.5 seconds ClearLcd * Clears LCD WriteLcd1 TEST COMPLETE * Displays TEST COMPLETE on LCD (Line 1) LEDOFF 5 * Turns LED on the TEST 5 button off Linecurrent 10 * Sets the Line Current to 10 mA *** End of Script


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MODE 1 TEST 6 * TITLE: Audio Example DATE: 10 July 1998 * This script plays a WAV file through the unit's audio output. ** Initialization LineCurrent 30 ClearLcd WriteLcd1 AUDIO EXAMPLE WriteaLcd2 PLEASE LIFT HANDSET LedBlink 6 WaitforOfHook WriteLcd2 Delay 500 Playwave greeting.msg ClearLcd WriteLcd1 COMPLETE Delay 500 LedOff 6 ** End of Script


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MODE 1 TEST 7 * TITLE: DTMF Digit Analysis (Requires DSP/104 Card) DATE: 7 July 1998 * This script performs DTMF digit analysis. It requires the presence * of the Rochelle DSP/104 Card. * The PASS counter on the front panel shows the total number of digits LineCurrent 30 WriteLcd1 DTMF DIGIT ANALYSIS WriteLcd2 PLEASE LIFT HANDSET LEDBLink 7 Waitforofhook ClearLcd WriteLcd1 DIAL DTMF DIGITS Delay 1000 MeasureDtmf WriteLcd1 END OF TEST Write Lcd2 Delay 1000 LEDOFF 7 WriteCounter1 ClearLcd ** End of Script


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MODE 2 TEST 1 * TITLE: DTMF Telephone Keypad Test DATE: 7 July 1998 * This script tests the DTMF generation of a telephone at three different * line current settings. ** Initialization ClearLcd * Clears the LCD WriteLcd1 DTMF Keypad Test * Displays the test title on the LCD (Line 1) WriteLcd2 TEST * Displays the test title on the LCD (line 2) LEDBlink 1 * Causes the LED on the TEST 1 button to blink Tone1Freq 350 * Defines the Dial Tone Frequency (Tone 1) Tone2Freq 440 * Defines the Dial Tone Frequency (Tone 2) Delay 1000 * Delay for 1 seconds *** Test 1 CLearLCD * Clears the LCD WriteLcd1 DTMF TEST #1 * Displays DTMF TEST #1 on the LCD WriteLcd2 LINE CURRENT: 18mA * Displays LINE CURRENT: 18mA on the LCD Delay 1000 * Delay for 1 second Noise Off * Turns noise off ClearLcd * Clears the LCD WriteLcd1 LIFT HANDSET * Displays LIFT HANDSET on the LCD (Line 1) ** Set Line Current LINECURRENT 18 * Sets the Line Current to 18 mA WaitForOffHook * Waits for the operator to lift the handset SwitchTone 1 ON * Turns on Dial Tone (Tone 1) SwitchTone 2 ON * Turns on Dial Tone (Tone 2) Delay 500 * Delay for 500 mS ClearLcD * Clears the LCD WriteLcd1 DIAL 1234567890*# * Displays DIAL 1234567890*# on the LCD (Line 1) WriteLcd2 * Clears LCD line 2 so that digits may echo ** GetDtmfStr receives, compares, and displays (echoes) DTMF digit


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GetDtmfStr 1 * Receives first digit so that dial tone can be terminated SwitchTone 1 OFF * Turns off Dial Tone (Tone 1) SwitchTone 2 OFF * Turns off Dial Tone (Tone 2) GetDtmfStr 234567890*# * Receives and echoes remainder of DTMF string Delay 500 * Delay for 500 mS ClearLcd * Clears LCD WriteLcd1 TEST #1 COMPLETE * Displays TEST #1 COMPLETE on LCD (Line 1) WriteLcd2 HANG UP * Displays HANG UP on LCD (Line 2) WaitForOnHook * Waits for the operator to hang up LineCurrent 10 * Sets the Line Current back to 10 mA DELAY 1000 * Delay for 1 second *** Test 2 CLearLCD WriteLcd1 DTMF TEST #2 WriteLcd2 LINE CURRENT: 40mA Delay 1000 ClearLcd WriteLcd1 LIFT HANDSET ** Set Line Current LINECURRENT 40 WaitForOffHook SwitchTone 1 ON SwitchTone 2 ON Delay 500 ClearLcd WriteLcd1 DIAL 1234567890*# WriteLcd2 GetDtmfStr 1 SwitchTone 1 OFF SwitchTone 2 OFF GetDtmfStr 234567890*# Delay 500 ClearLcd WriteLcd1 TEST #2 COMPLETE WriteLcd2 HANG UP


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WaitForOnHook DELAY 1000 *** Test 3 CLearLCD WriteLcd1 DTMF TEST #3 WriteLcd2 LINE CURRENT: 80mA Delay 1000 ClearLcd WriteLcd1 LIFT HANDSET ** Set Line Current LINECURRENT 80 WaitForOffHook SwitchTone 1 ON SwitchTone 2 ON Delay 500 ClearLcd WriteLcd1 DIAL 1234567890*# WriteLcd2 GetDtmfStr 1 SwitchTone 1 OFF SwitchTone 2 OFF GetDtmfStr 234567890*# * Receives and echoes remainder of DTMF string Delay 500 ClearLcd WriteLcd1 TEST #3 COMPLETE WriteLcd2 HANG UP WaitForOnHook LineCurrent 10 CLEARLCD WRITELCD1 TEST COMPLETE LEDOff 1 *** End of Script


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MODE 2 TEST 2 * TITLE: Ring Detect Tests DATE: 7 July 1998 * This script provides seven different rings with various ring levels * and frequencies. The first three rings should not be detected and the * last four should be. ** Initialization ClearLCD * Clears the LCD LEDBlink 2 * Causes the LED on the TEST 2 button to blink WriteLCD1 RING DETECT TESTS * Displays the test title on the LCD (Line 1) Delay 2000 * Delay for 2 seconds *** Test 1 ClearLcd * Clears the LCD WriteLCD1 FALSE RING 1 * Displays FALSE RING 1 on the LCD (Line 1) WriteLcd2 25Vrms @ 20Hz * Displays 25Vrms @ 20Hz on the LCD (Line 2) ** Set Freq and Level RINGFREQ 20 * Sets the Ring Frequency to 20 Hz RINGLEVEL 25 * Sets the Ring Level to 25 Vrms ** Begin Ring RING * Ring for 2 seconds Delay 3000 * Delay for 3 seconds *** Test 2 ClearLCD WriteLcd1 FALSE RING 2 WriteLCD2 15Vrms @ 60Hz ** Set Freq and Level RINGFREQ 60 RINGLEVEL 20 ** Begin Ring


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RING Delay 3000 *** Test 3 ClearLCD WriteLCD1 FALSE RING 3 WriteLCD2 80Vrms @ 50mS ** Set Level RINGLEVEL 80 ** Begin Ring RING 50 * Ring for 50 mS Delay 3000 *** Test 4 ClearLCD WriteLCD1 LOW RING 1 WriteLCD2 45Vrms @ 25Hz ** Set Freq and Level RINGFREQ 25 RINGLEVEL 45 ** Begin Ring RING Delay 3000 *** Test 5 ClearLCD WriteLCD1 LOW RING 2 WriteLCD2 45Vrms @ 60Hz


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** Set Freq and Level RINGFREQ 60 RINGLEVEL 45 ** Begin Ring RING DELAY 3000 *** Test 6 ClearLCD WriteLCD1 HIGH RING 1 WriteLCD2 80Vrms @ 20Hz ** Set Freq and Level RINGFREQ 20 RINGLEVEL 80 ** Begin Ring RING Delay 3000 *** Test 7 ClearLCD WriteLCD1 HIGH RING 2 WriteLCD2 80Vrms @ 60 Hz ** Set Freq and Level RINGLEVEL 80 RINGFREQ 60 ** Begin Ring RING Delay 1000


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ClearLcd * Clears LCD WriteLcd1 TEST COMPLETE * Displays TEST COMPLETE on LCD (Line 1) LEDOFF 2 * Turns LED on the TEST 2 button off LINECURRENT 10 * Sets the Line Current to 10 mA *****END SCRIPT


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MODE 2 TEST 3 * TITLE: Caller ID Tests DATE: 7 July 1998 * This script tests several different aspects of both Type I and Type II * Caller ID. The script transmits a Single Message Caller ID packet followed * by a Multiple Message Caller ID packet. Then five CIDCW tests are performed * with varying CAS levels and frequencies. Finally, two false CIDCW packets * are sent. ** Initialization ClearLCD * Clears the LCD WriteLCD1 CALLER ID TESTS * Displays the test title on the LCD (Line 1) LedBlink 3 * Causes the LED on the TEST 3 button to blink MODEM BELL202 * Selects Bell 202 Modem Type Level 20 * Sets the FSK Signal Level to -20 dBm SNR 30 * Sets the Signal-to-Noise Ratio to 30 dB LineCurrent 25 * Sets the Line Current to 25 mA RingLevel 55 * Sets the Ring Level to 55 VACrms RingFreq 20 * Sets the Ring Frequency to 20 Hz Polarity Normal * Sets the Polarity to Normal Delay 1000 *** Single Message Caller ID ClearLCD WriteLCD1 CALLER ID #1 WriteLcd2 SINGLE MESSAGE ** Start of call sequence RING 1000 * Ring for 1 second DELAY 500 * Delay for 500 mS Single 2135558763 * Defines Single Message Caller ID packet DELAY 2000 *** Multiple Message Caller ID


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ClearLCD WriteLCD1 CALLER ID #2 WriteLcd2 MULTIPLE MESSAGE RING * Ring for 2 seconds DELAY 500 * Delay for 500 mS MULTIPLE * Start of Multiple Message Caller ID packet DateTime 07071305 Sets Date and Time parameter ICLID 5125551234 * Sets Caller ID Number parameter NAME HOPE<20>BOB * Sets Caller ID Name parameter ENDMULTIPLE * End of Multiple Message Caller ID packet DELAY 2000 *** CIDCW ClearLCD WriteLCD1 CIDCW TESTS Delay 2000 WriteLCD2 LIFT HANDSET WaitForOffHook * Waits for operator to lift the handset LineCurrent 40 * Sets the Line Current to 40 mA Delay 500 *** #1 ClearLCD WriteLcd1 CIDCW #1 WriteLcd2 CAS = -10, -15 Delay 3000 ** Set CAS Levels and Frequencies Tone1freq 2130 * Sets CAS Tone Frequency (Tone 1) Tone2freq 2750 * Sets CAS Tone Frequency (Tone 2) Tone1Level 10 * Sets CAS Tone Level (Tone 1) Tone2Level 15 * Sets CAS Tone Level (Tone 2) ** Begin Sequence SendSAS 300 * Generate Call Waiting SAS Alert Signal for 300 mS


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Dualtone 80 * Generate CAS tone for 80 mS DtmfAck D * Waits for CPE to send ack signal (DTMF D) -- function * returns approx. 40 mS after the end of the DTMF tone * is detected DELAY 40 * Wait for an additional 40 mS (80 mS total from * DTMF D) CARRIER ON * Turns FSK Modem Carrier ON Delay 60 * Delay for 60 mS StartCWCID * Start of CWCID packet DateTime 04151345 * Sets Date and Time parameter ICLID 1111111111 * Sets Caller ID Number parameter NAME -10dBm<20>-15dBm * Sets Caller ID Name parameter (Hex 20=space) EndCWCID * End of CWCID packet Delay 2000 *** #2 ClearLCD WriteLcd1 CIDCW #2 WriteLcd2 CAS = -25, -25 ** Set CAS Levels and Frequencies Tone1Level 25 Tone2Level 25 ** Begin Sequence SendSAS 300 Dualtone 80 DtmfAck D DELAY 40 CARRIER ON Delay 60 StartCWCID DateTime 04151355 ICLID 2222222222 NAME -25dBm<20>-25dBm EndCWCID Delay 2000


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*** #3 ClearLCD WriteLcd1 CIDCW #3 WriteLcd2 CAS = -25, -12 ** Set CAS Levels and Frequencies Tone1Level 25 Tone2Level 12 ** Begin Sequence SendSAS 300 Dualtone 80 DtmfAck D DELAY 40 CARRIER ON Delay 60 StartCWCID DateTime 04151400 ICLID 3333333333 NAME -25dBm<20>-12dBm EndCWCID Delay 2000 *** #4 ClearLCD WriteLcd1 CIDCW #4 WriteLcd2 CAS = -12, -25 ** Set CAS Levels and Frequencies Tone1Level 12 Tone2Level 25 ** Begin Sequence SendSAS 300 Dualtone 80 DtmfAck D DELAY 40


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CARRIER ON Delay 60 StartCWCID DateTime 04151405 ICLID 4444444444 NAME -12dBm<20>-25dBm EndCWCID Delay 2000 *** #5 ClearLCD WriteLcd1 CIDCW #5 WriteLcd2 CAS = 2150Hz,2720Hz ** Set CAS Levels and Frequencies Tone1Level 10 Tone2Level 15 TONE1FREQ 2150 TONE2FREQ 2720 ** Begin Sequence SendSAS 300 Dualtone 80 DtmfAck D DELAY 40 CARRIER ON Delay 60 StartCWCID DateTime 04151405 ICLID 5555555555 NAME 2150Hz<20>2720Hz EndCWCID DELAY 2000 *** FALSE CIDCW ClearLCD WriteLCD1 FALSE CIDCW


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Delay 2000 *** #1 ClearLCD WriteLcd1 FALSE CIDCW #1 WriteLcd2 CAS = -36, -36 ** Set CAS Levels and Frequencies TONE1LEVEL 36 TONE2LEVEL 36 TONE1FREQ 2130 TONE2FREQ 2750 ** Begin Sequence SendSAS 300 Dualtone 80 DtmfAck D DELAY 40 CARRIER ON Delay 60 StartCWCID DateTime 04151405 ICLID 0000000000 NAME -36dBm<20>-36dBm EndCWCID Delay 2000 *** #2 ClearLCD WriteLcd1 FALSE CIDCW #2 WriteLcd2 CAS = 2050Hz,2820Hz ** Set CAS Levels and Frequencies Tone1Level 10 Tone2Level 15 TONE1FREQ 2050 TONE2FREQ 2820 ** Begin Sequence


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SendSAS 300 Dualtone 80 DtmfAck D DELAY 40 CARRIER ON Delay 60 StartCWCID DateTime 04151405 ICLID 00000000000 NAME 2050Hz<20>2820Hz EndCWCID Delay 2000 ClearLCD * Clears the LCD WriteLCD1 TEST COMPLETE * Displays TEST COMPLETE on the LCD (Line 1) LEDOFF 3 * Turns the LED on the TEST 3 button off LINECURRENT 10 * Sets the Line Current to 10 mA ** End of script


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MODE 2 TEST 4 * TITLE: Dial Pulse (PASS/FAIL) DATE: 7 July 1998 * This script performs pulse measurements and increments the test counters * on the 3500 based on the results. If a pulse is out of range, the test * stops ClearLCD WriteCounter1 0 WriteCounter2 0 LEDBlink 4 WriteLCD1 PLEASE GO OFF-HOOK WriteLCD2 AND DIAL 10 DIGITS WaitforOffHook DisplayPassFail PulseMakeRange 35 45 PulseBreakRange 55 65 PulsePPSRange 9 11 MeasurePulse 10 * Measure 10 dial-pulse digits LEDOFF 4 IF FAIL BEEP ENDIF


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MODE 2 TEST 5 * TITLE: DTMF Digit Test (PASS/FAIL) Requires DSP/104 Card DATE: 7 July 1998 * This script examples shows how to compare the levels and frequencies * of DTMF digits to some nominal values. The script can be expanded to * cover all digits for factory testing of telephones. This test requires * the presence of a DSP/104 card for DTMF digit analysis. ClearLCD LEDBlink 5 WriteCounter1 0 WriteCounter2 0 WriteLCD1 DTMF DIGIT TEST WriteLCD2 PLEASE GO OFF-HOOK WaitforOffHook WriteLCD2 AND DIAL '1' 3 TIMES DisplayPassFail DtmfLowLevelRange -11 -1 DtmfHighLevelRange -11 -1 DtmfLowFreqRange 690 710 * Limits for DTMF 1 DtmfHighFreqRange 1210 1230 * Limits for DTMF 1 DtmfLowLevelRange -11 -1 DtmfHighLevelRange -11 -1 DtmfLowFreqRange 690 710 * Limits for DTMF 1 DtmfHighFreqRange 1210 1230 * Limits for DTMF 1 MeasureDTMF 3 * measure DTMF parameters for three '1' digits LEDOFF 5 IF PASS * If the above DTMF limits are met, the following * commands will run until the ENDIF Display DTMF Measurement Passed. Press any key to continue ENDIF IF FAIL BEEP ENDIF


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MODE 2 TEST 6 * TITLE: BT Caller ID Simulation DATE: 7 July 1998 ** This script simulates the Calling Line Identification (CLI) signal ** defined in BT's SIN 227 specification for the United Kingdom. ** Initialization MODEM V23 * Select V23 FSK Modem LEVEL 20 * FSK level is -20 dBm SNR 30 * FSK Signal-to-Noise Ratio is 30 dB Tone1freq 2130 * Alert Tone frequency selection (2130Hz+2750Hz) Tone2freq 2750 Tone1Level 22 * Alert Tone amplitude selection (-22 dBm per tone) Tone2Level 22 LEDBlink 6 WriteLCD1 BT Caller ID Test WriteLCD2 Call From 0120282469 ** Start of call sequence POLARITY REVERSE * Reverse the line polarity DELAY 150 * Wait 150 mS (should be >=100mS) Dualtone 100 * Alert signal ON (should be between 88 and 110 mS) DELAY 60 * Delay 60 mS (CPE must present DC wetting pulse here) STARTCLI * Start of CLI packet (Message Type 80Hex) message * and parameter definition DATETIME 11071530 *Date and time: Nov 7, 3:30pm CALLING 0120282469 *Calling number: 0120282469 ENDCLI * Calculate checksum and transmit FSK data DELAY 250 * Wait 250 mS after sending data POLARITY NORMAL * Restore normal polarity prior to start of ringing RING 400 * Ring: 400mS ON, 200mS OFF, 400mS ON DELAY 200 RING 400 Delay 4000 WriteLCD1 END OF TEST WriteLCD2 Delay 1000 LEDOFF 5 WriteLCD1 ** End of script


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MODE 2 TEST 8 * TITLE: General Burn-in Test DATE: 7 July 1998 * This script is used for burn-in of the 3500. Commands are included * to exercise various hardware devices on the board. ClearLcd WriteLcd1 BURN IN Delay 1000 loop 32200 ClearLcd WriteLcd1 LED TEST Delay 500 WriteLcd2 ON ON ON ON ON ON LedOn 1 LedOn 2 LedOn 3 LedOn 4 LedOn 5 LedOn 6 LedOn 7 LedOn 8 LedOn 9 LedOn 10 LedOn 11 LedOn 12 LedOn 13 LedOn 14 Delay 500 WriteLcd2 OFF OFF OFF OFF Delay 1000 LedOff 1 LedOff 2 LedOff 3 LedOff 4 LedOff 5 LedOff 6 LedOff 7 LedOff 8 LedOff 9 LedOff 10 LedOff 11


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LedOff 12 LedOff 13 LedOff 14 Delay 500 ClearLcd WriteLcd1 COUNTER TEST Delay 250 WriteLcd2 ZERO ZERO ZERO delay 250 WriteCounter1 0000 delay 250 WriteCounter2 0000 Delay 250 WriteLcd2 CLEAR CLEAR delay 250 WriteCounter1 delay 250 WriteCounter2 Delay 500 ClearLcd WriteLcd1 5 SEC. RING TEST Delay 1000 RINGLEVEL 80 RINGFREQ 20 RING 5000 Delay 1000 polarity reverse Delay 1000 Lineloop long Delay 3000 WriteLcd1 WRITE TO COUNTERS delay 500 WriteCounter1 1234 delay 250 WriteCounter2 5678 delay 1000 WriteLcd2 CLEAR COUNTERS delay 500 WriteCounter1 delay 250 WriteCounter2 delay 250 WriteLcd2


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Ringlevel 44 RING 500 Delay 1000 WriteLCD1 8 SEC RING WriteLCD2 RING 8000 Delay 4000 ClearLcd WriteLcd1 CALLER ID TESTS Delay 1000 polarity normal LEVEL 20 snr 40 RING 500 SINGLE 0000000000 Delay 1000 RING 500 SINGLE 1111111111 Delay 1000 RING 500 SINGLE 2222222222 Delay 1000 RING 500 SINGLE 3333333333 Delay 1000 WriteLcd2 WRITE TO COUNTERS delay 500 WriteCounter1 1234 delay 250 WriteCounter2 5678 delay 1000 WriteLcd2 CLEAR COUNTERS delay 500 WriteCounter1 delay 250 WriteCounter2 delay 1000 WriteLcd2 WRITE TO COUNTERS delay 500 WriteCounter1 1234 delay 250 WriteCounter2 5678


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delay 500 WriteLcd2 RING 500 SINGLE 4444444444 Delay 1000 RING 500 SINGLE 5555555555 Delay 1000 RING 500 SINGLE 6666666666 Delay 1000 RING 500 SINGLE 7777777777 Delay 1000 RING 500 SINGLE 8888888888 Delay 1000 Polarity Reverse RING 500 SINGLE 9999999999 delay 1000 lineloop medium WriteLcd1 CLEAR COUNTERS delay 500 WriteCounter1 delay 250 WriteCounter2 delay 500 WriteLcd1 80mA / 20sec Hook OFF LineCurrent 80 Delay 10000 Hook ON WriteLcd1 End of Cycle endloop LEDOFF 8 ** End of Script


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MODE 3 TEST 1 * TITLE: Visual Message Waiting Test DATE: 7 July 1998 * This script performs a simple single message data format visual message * waiting test. The script activates and deactivates a message waiting * indicator two times (2 loops). ** Initialization CLEARLCD * Clears the LCD WriteLcd1 VISUAL MESSAGE * Displays the test title on the LCD (Line 1) WriteLcd2 WAITING TEST * Displays the test title on the LCD (Line 2) LedBlink 1 * Causes the LED on the TEST 1 button to blink Level 20 * Sets the FSK Signal Level to -20 dBm SNR 30 * Sets the Signal-to-Noise ratio to 30 dB Polarity Normal * Sets the signal polarity to normal Delay 2000 Delays for 2 seconds Loop 2 * Repeats commands between this line and ENDLOOP ClearLcd * Clears the LCD WriteLcd1 ACTIVATE MESSAGE * Displays ACTIVATE MESSAGE on the LCD (Line 1) WriteLcd2 WAITING LAMP * Displays WAITING LAMP on the LCD (Line 2) RING 500 * Rings for 500 mS Delay 500 * Delay for 500 mS Msg6 Activate * Activates Single Message Data Format Visual * Message Waiting Indicator Delay 4000 * Delay for 4 seconds ClearLcd WriteLcd1 DEACTIVATE MESSAGE WriteLcd2 WAITING LAMP RING 500 Delay 500 Msg6 DeActivate * Deactivates Single Message Data Format Visual * Message Waiting Indicator


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Delay 4000 EndLoop ClearLcd * Clears the LCD WriteLcd1 TEST COMPLETE * Displays TEST COMPLETE on the LCD (Line 1) LEDOFF 1 * Turns the LED on the TEST 1 button off LINECURRENT 10 * Sets the Line Current to 10 mA ** End of script


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MODE 3 TEST 2 * TITLE: FAX Send and Receive Test DATE: 7 July 1998 * This script includes both a send and receive FAX test. First, a * FAX is sent from the unit under test (e.g., a fax machine) to the * 3500. Then the same document is faxed from the 3500 to the unit * under test. Note that any document may be faxed to the 3500. The * 3500 receives the fax and stores it as a file named TESTFAX.F01 on * the C: flash drive. ** Initialization ClearLcd * Clears the LCD LedBlink 2 * Causes the LED on the TEST 2 button to blink WriteLcd1 FAX SEND & * Displays the test title on the LCD (Line 1) WriteLcd2 RECEIVE TEST * Displays the test title on the LCD (Line 2) Noise off * Turns noise off ringlevel 70 * Sets the Ring Level to 70 VACrms ringfreq 25 * Sets the Ring Frequency to 25 Hz LineCurrent 30 * Sets the Line Current to 30 mA ** Transmit From Unit Under Test Delay 3000 ClearLcd WriteLcd1 TRANSMIT TEST DELAY 2000 ClearLcd WriteLcd1 LOAD DOCUMENT DELAY 2000 ClearLcd WriteLcd1 DIAL NUMBER WriteLcd2 FOLLOWED BY # DELAY 2000 CLearLcd WriteLcd1 PRESS START WaitForCall * Waits for the unit under test to go off-hook * and dial a number ending with the # key. Delay 100 * Delay for 100 mS


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ClearLcd WriteLcd1 RECEIVING FAX ReceiveFax TestFax * ReceiveFax provides all the handshaking * necessary to receive a test fax from * the unit under test. The received * FAX is stored as a file named "TestFax" * on the 3500. ClearLcd WriteLcd1 TRANSMISSION WriteLcd2 COMPLETE Delay 8000 ******* FaxToVGA TestFax * Displays the contents of "TestFax" * Take comments before “FaxToVGA” to * enable VGA screen display of received Fax ** Receive at Unit Under Test LINECURRENT 10 ClearLcd WriteLcd1 RECEIVE FAX TEST MakeCall * Rings the unit under test using ring levels and freq. * defined in the initialization section, until the fax * machine answers. A 2 second ON/4 second OFF * ringback cadence is used. LINECURRENT 30 DELAY 100 ClearLcd WriteLcd1 SENDING FAX SendFax TestFax * SendFax provides all the handshaking necessary * to send a test fax to the external fax machine. * The 3500 sends the file "TestFax". ClearLcd WriteLcd1 TEST COMPLETE LEDOff 2 LINECURRENT 10 ** End of script


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MODE 3 TEST 3 ** TITLE: Japan Caller ID DATE: 7 July 1998 ** This script simulates the Calling Line Identification (CLI) signal ** defined in NTT's Trial Specifications for Japan. Critical timing ** parameters and signal levels are controllable. ** Initialization ClearLcd * Clears the LCD WriteLcd1 JAPAN CALLER ID * Writes the test title to the LCD (Line 1) LedBlink 3 * Causes the LED on the TEST 3 button to blink MODEM V23 * Selects V23 FSK Modem Type LEVEL 20 * Sets the FSK Signal Level to -20 dBm SNR 30 * Sets the Signal-to-Noise Ratio to 30 dB RingLevel 55 * Sets the Ring Level to 55 VACrms RingFreq 20 * Sets the Ring Frequency to 20 Hz ** Call 1 Delay 2000 ClearLcd * Clears the LCD WriteLcd1 BEGIN SEQUENCE * Displays CALL 1 on the LCD (Line 1) ** Set up Line Polarity Reverse * Reverses the line polarity Delay 150 * Delay for 150 mS (should be >=100mS) ** Begin Caller ID Sequence Ring 500 * Ring for 500 mS - CPE Activation Ringing (CAR) Delay 500 * Delay for 500 mS Ring 500 * Ring for 500 mS Delay 500 * Delay for 500 mS Ring 500 * Ring for 500 mS Delay 500 * Delay for 500 mS Ring 500 * Ring for 500 mS Delay 500 * Delay for 500 mS Ring 500 * Ring for 500 mS Delay 500 * Delay for 500 mS


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Ring 500 * Ring for 500 mS WaitforOffHook 1000 * Wait for 1000 mS - Should be already off hook ** Data Transmission ClearLcd WriteLcd1 TRANSMIT DATA Delay 200 * Delay for 200 mS before commencing data transmission Carrier ON * Turn carrier ON Delay 50 * Delay for 50 mS so that carrier is ON for that period PARITY EVEN * Set parity SEND <10><01><07><10><02><40><0C><02><0A>0335092111<10><03> * Send Caller ID data PARITY NONE * Set parity SEND <8A><D3> * Send 16-bit Checksum (CRC-CCITT) from header

* <07> to ETX <03> Delay 20 * Delay for 20 mS Carrier OFF * Drop carrier WaitforOnhook 1000 * WaitforOnhook Delay 400 * Delay for 400 mS ** Begin Ring Sequence ClearLcd WriteLcd1 BEGIN RING Ring 1000 * Generate first ring Delay 3000 ClearLcd Ring 1000 Delay 3000 ClearLcd * Clears the LCD WriteLcd1 TEST COMPLETE * Displays TEST COMPLETE on the LCD (Line 1) LedOff 3 * Turns the LED on the TEST 3 button off ** End of script


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MODE 3 TEST 4 * TITLE: Answering Machine-DTMF Detection and Rejection DATE: 7 July 1998 * This script generates a combination of good and bad DTMF tones for * detection by an answering machine. ** Initialization LineCurrent 40 RingLevel 70 ClearLCD WriteLCD1 ANSWERING MACHINE WriteLCD2 DTMF RECEIVER TEST LEDBlink 4 Delay 1500 WriteLCD1 RING WriteLCD2 RING 400 * Ring: 400mS ON, 200mS OFF, 400mS ON DELAY 200 RING 400 WriteLCD1 WAITING FOR OFF HOOK WaitforOffHook WriteLCD2 Delay 1000 Tone1Freq 920 Tone2Freq 1209 Tone1Level 5 Tone2Level 5 SNR 48 WriteLCD1 FALSE DTMF * (FREQ) WriteLCD2 920/1209HZ -5DBM DualTone 1000 Delay 1000 WriteLCD1 FALSE DTMF * (DUR) WriteLCD2 -5DBM / 30mS Tone1Freq 941 Tone2Freq 1209 DualTone 30 Delay 1000 Tone1level 30 Tone2Level 30 WriteLCD1 LOW LEVEL DTMF * WriteLCD2 -30DBM/100mS DualTone 100 Delay 1000 WriteLCD1 DTMF * W/17SNR NOISE WriteLCD2 -20DBM/100mS


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Tone1Level 20 Tone2Level 20 SNR 17 Delay 1000 DualTone 100 Delay 1000 SNR 40 WriteLCD1 LOUD DTMF WriteLCD2 0DBM/50mS Tone1Level 0 Tone2Level 0 DualTone 50 Delay 1000 ClearLCD WriteLCD1 END OF TEST LEDOFF 4 ** End of script


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MODE3 TEST 5 * TITLE: Answering Machine-Dial Tone Detection DATE: 7 July 1998 * This script generates a steady dial tone following an incoming call. * It simulates the case when a caller hangs up on an answering machine. * Many smart answering machines detect such a tone and do not record it. ** Initialization LineCurrent 40 RingLevel 70 ClearLCD WriteLCD1 ANSWERING MACHINE WriteLCD2 DIAL TONE DETECTION LEDBlink 5 Delay 1500 ClearLCD WriteLCD1 RING RING 400 * Ring: 400mS ON, 200mS OFF, 400mS ON DELAY 200 RING 400 WriteLCD1 WAITING FOR OFF HOOK WriteLCD2 WaitforOffHook WriteLCD1 7 SEC. DIAL TONE WriteLCD2 350/440HZ -10DBM Tone1Level 10 Tone2Level 10 Tone1Freq 350 Tone2Freq 440 DualTone 7000 WriteLCD1 END OF TEST WriteLCD2 LEDOFF 5 ** End of script


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MODE3 TEST 6 * TITLE: UK Caller ID and Answering Machine Demo DATE: 7 July 1998 * This script provides an answering machine demo equipped with BT-compatible * Calling Line Identification. ** Initialization LineCurrent 40 RingLevel 70 ClearLCD WriteLCD1 ANSWERING MACHINE WriteLCD2 BT CALLER ID TEST LEDBlink 6 Delay 1000 MODEM V23 * Select V23 FSK Modem LEVEL 20 * FSK level is -20 dBm SNR 30 * FSK Signal-to-Noise Ratio is 30 dB Tone1freq 2130 * Alert Tone frequency selection (2130Hz+2750Hz) Tone2freq 2750 Tone1Level 22 * Alert Tone amplitude selection (-22 dBm per tone) Tone2Level 22 ** Start of call sequence WriteLCD1 GENERATING CALLER ID WriteLCD2 POLARITY REVERSE * Reverse the line polarity DELAY 150 * Wait 150 mS (should be >=100mS) WriteLCD2 POLARITY REVERSED Dualtone 100 * Alert signal ON (should be between 88 and 110 mS) DELAY 60 * Delay 60 mS (CPE must present DC wetting pulse here) STARTCLI * Start of CLI packet (Message Type 80Hex) message * and parameter definition DATETIME 11071530 *Date and time: Nov 7, 3:30pm CALLING 01202824698 *Calling number: 01202824698 CALLED 01202555789 *Called number: 01202555789 NAME JOE_DOE *Calling name: JOE_DOE ENDCLI * Calculate checksum and transmit FSK data DELAY 250 * Wait 250 mS after sending data POLARITY NORMAL * Restore normal polarity prior to start of ringing WriteLCD2 POLARITY NORMAL Delay 200 WriteLCD2 RING RING 400 * Ring: 400mS ON, 200mS OFF, 400mS ON


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DELAY 200 RING 400 WriteLCD1 WAITING FOR OFF HOOK WriteLCD2 WaitforOffHook WriteLCD1 LISTENING TO WriteLCD2 OGM MESSAGE 5 SEC Delay 5000 WriteLCD1 PLAYING MESSAGE TO WriteLCD2 ANS. MACHINE 20 SEC Playwave greeting.msg Delay 500 WriteLCD1 SIMULATING 100mS WriteLCD2 LINE BREAK Delay 1000 LINEBREAK 100 Delay 100 ClearLCD WriteLCD1 WAITING FOR ON HOOK WaitforOnHook WriteLCD1 ON HOOK DETECTED WriteLCD2 Delay 1000 WriteLCD1 END OF TEST LEDOFF 6 ** End of script


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DOS MODE TEST 1

* This script clears the 2 Pass/Fail counters on the front panel. WriteCounter1 WriteCounter2

** END SCRIPT

DOS MODE TEST 2

* This script displays the version numbers of the front panel firmware and software. DisplayVersion ** END SCRIPT DOS MODE TEST 3 This script copies Test Files from Directories on the Floppy (B:) to Corresponding Directories on the C: Flash Drive ECHO >COM2 +A WAIT .5 SECOND ECHO >COM2 +B COPYING FILES WAIT .5 SECOND ECHO >COM2 +C PLEASE WAIT COPY B:\MODE1\*.* C:\MODE1\*.* COPY B:\MODE2\*.* C:\MODE2\*.* COPY B:\MODE3\*.* C:\MODE3\*.* COPY B:\DOS\*.* C:\DOS\*.* ECHO >COM2 +A WAIT .5 SECOND ECHO >COM2 +B FILE TRANSFER WAIT .5 SECOND ECHO >COM2 +C COMPLETE : END


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DOS MODE TEST 4 This Script Copies test files from directories on a floppy disk to the functional directories on the system according to assignments made in a file called asgndir.bat. ECHO >COM2 +A WAIT .5 SECOND ECHO >COM2 +B COPYING FILES WAIT .5 SECOND ECHO >COM2 +C PLEASE WAIT CALL B:ASGNDIR.BAT COPY B:\%MODE1%\*.* C:\MODE1 COPY B:\%MODE2%\*.* C:\MODE2 COPY B:\%MODE3%\*.* C:\MODE3 COPY B:\%DOS%\*.* C:\DOS ECHO >COM2 +A WAIT .5 SECOND ECHO >COM2 +B FILE TRANSFER WAIT .5 SECOND ECHO >COM2 +C COMPLETE : END DOS MODE TEST 5 This Script Launches support and maintenance programs (e.g., software upgrades) from a floppy disk. ECHO >COM2 +A WAIT .5 SECOND ECHO >COM2 +B COPYING FILES WAIT .5 SECOND ECHO >COM2 +C PLEASE WAIT B: update -d -o C:\ ECHO >COM2 +A WAIT .5 SECOND ECHO >COM2 +B SYSTEM UPDATE WAIT .5 SECOND ECHO >COM2 +C COMPLETE C: FP : END


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DOS MODE TEST 6 This Script Launches support and maintenance programs (e.g., software upgrades) from a floppy disk. B: INSTALL DOS MODE TEST 8 This Script Launches support and maintenance programs (e.g., software upgrades) from a floppy disk. ECHO >COM2 +A WAIT .5 SECOND ECHO >COM2 +B ADMIN IN PROGRESS WAIT .5 SECOND ECHO >COM2 +C PLEASE WAIT CALL B:ADMIN.BAT ECHO >COM2 +A WAIT .5 SECOND ECHO >COM2 +B ADMIN PROCEDURE WAIT .5 SECOND ECHO >COM2 +C COMPLETE

MODEL 3500 EXAMPLE SCRIPTS FOR 3500MENU OR FP

USE


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1000_CAS.SCR

** This script generates 1000 CAS tones in a loop and tracks DTMF D ACK ** response. * Initialization Tone1freq 2130 * CAS Tone parameters Tone2freq 2750 Tone1Level 25 Tone2Level 20 * Start of call sequence Loop 1000 Dualtone 80 * Generate a CAS Tone DtmfAck D * Look for ACK D; timeout in 200 mS if not detected Delay 1200 * Loop delay Endloop ** End of script


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50_CALLS.SCR

* This script generates fifty calls with Multiple Message Caller ID. * The names are consecutive, allowing a quick check for missed calls * on a Caller ID-equipped telephone or display unit. When operating * properly, such a unit will display 50 calls after the end of * this script. ** Initialization MODEM BELL202 * Select Bell 202 FSK Modem LEVEL 35 * FSK Signal Level is -35dBm (approx. -29dBm if the * load is high impedance) SNR 20 * Signal-to-Noise Ratio set at 20dB ** Start of call simulation RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME ONE * Display ONE in the Name Field ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TWO ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME THREE ENDMULTIPLE DELAY 1000 *


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RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FOUR ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FIVE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME SIX ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME SEVEN ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME EIGHT ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500


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MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME NINE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TEN ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME ELEVEN ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TWELVE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME THIRTEEN ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245


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ICLID 5125551212 NAME FOURTEEN ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FIFTEEN ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME SIXTEEN ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME SEVENTEEN ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME EIGHTEEN ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME NINETEEN


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ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TWENTY ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TWENTY_ONE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TWENTY_TWO ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TWENTY_THREE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TWENTY_FOUR ENDMULTIPLE DELAY 1000


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* RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TWENTY_FIVE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TWENTY_SIX ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TWENTY_SEVEN ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TWENTY_EIGHT ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME TWENTY_NINE ENDMULTIPLE DELAY 1000 * RING 1000


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DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME CALL_THIRTY ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME THIRTY_ONE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME THIRTY_TWO ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME THIRTY_THREE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME THIRTY_FOUR ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE


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DATETIME 10171245 ICLID 5125551212 NAME THIRTY_FIVE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME THIRTY_SIX ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME THIRTY_SEVEN ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME THIRTY_EIGHT ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME THIRTY_NINE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212


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NAME CALL_FORTY ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FORTY_ONE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FORTY_TWO ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FORTY_THREE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FORTY_FOUR ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FORTY_FIVE ENDMULTIPLE DELAY 1000


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RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FORTY_SIX ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FORTY_SEVEN ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FORTY_EIGHT ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FORTY_NINE ENDMULTIPLE DELAY 1000 * RING 1000 DELAY 500 MULTIPLE DATETIME 10171245 ICLID 5125551212 NAME FIFTY ENDMULTIPLE DELAY 1000 ** End of script


Page 143

ARGENTIN.SCR

** This script simulates the On-hook Type I Caller ID for Telecom de ** ** Argentina based on the "Especificacion de Requisitos AR.ER.c2.002 Ed.1" ** ** ** ********************************************************************************************** ** Written for the Rochelle 3400, 3410, and 3500 Caller ID Simulators. ** ** Updated on 7/22/1999. ** ********************************************************************************************** ** Initialization - Use default CO Line on-hook DC voltage setting MODEM V23 * Selects V23 Modem Type Level -20 * FSK Transmit Level is -20 dBm. Since we are transmitting * into a high-impedance load, the actual signal level will be * about 4-6 dB higher. SNR 35 * FSK Signal-to-noise ratio set at 35 dB RingLevel 55 * Ring level must be 30 - 90 VAC RMS RingFreq 25 * Ring frequency must be 23 - 28 Hz ** Start of call sequence Ring 500 * Alerting Signal is a 500 mS ring (must be 250 - 1200 mS) Delay 550 * Pause prior to the start of FSK transmission (> 500 mS) SEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUUUUUUUUU CARRIER ON DELAY 150 * Provides 180 bits (150 mS) mark signal (155<mark<205 bits) SEND <80><14><01><08>02201018<02><08>42457645# * Date/Time, and ICLID data DELAY 10 CARRIER OFF Delay 250 * Pause following the end of tranmission. Must be > 200 mS. Ring 1000 * Second ring Delay 5000 * Silence between rings Ring 1000 * Third ring ** End of script


Page 144

AUDIO.SCR

** This script example shows how to record and play an audio file using the ** Caller ID Telephone Production Tester, Model 3500. Display Record a message using a telephone handset. LineCurrent 30 WaitforOffHook * Waits for off-hook Delay 500 RecordWave TESTREC 10 * Records a 10 second message and saves it as a file * named 'TESTREC'. Display Listen to the message played through a telephone handset or speakers. Delay 5000 PlayWave testrec * Plays the sound recording named 'TESTREC'. ** End of Script


Page 145

BIT_STUF.SCR

This is an example of using the FSKDELAY command to stuff MARK bits between each character. Initialization MODEM Bell202 * Select Bell 202 FSK Modem Level 20 * Set FSK signal level to -20dBm SNR 30 * Set the Signal-to-Noise Ratio to 30dB FSKDELAY 15 * 15ms of mark signal between each character ** Start of call sequence RING * 2 sec ring signal DELAY 500 * 0.5 sec delay SINGLE 5125551234 * generate a single message Caller ID packet ** End of script


Page 146

BRAZIL.SCR ********************************************************************************************** ** This script allows the user to simulate two incoming calls with on-hook ** ** Caller ID based on the unofficial Brazilian format. The first call uses ** ** DTMF signaling (similar to the one used in Finland) for Caller ID, while ** ** the second call uses Multi-Frequency (MF) tones (usually reserved for ** ** central office trunk signaling). ** ** ** ********************************************************************************************** ** Written for the Rochelle 3400, 3410, and 3500 Caller ID Simulators. ** ** Updated on 7/22/1999. ** *********************************************************************************************** ** Initialization - Use default CO Line on-hook DC voltage setting RingLevel 55 * Set ring voltage at 55Vac RMS Ringfreq 25 * Set ring frequency at 25Hz Level -20 * Set DTMF at -20 dBm (ref 600 ohms). Since we are * transmitting into a high impedance load, the actual * signal level will be approximately 4-6dB higher) * Start of call sequence #1 (Call from 456 7891) using DTMF signaling Polarity Reverse * Alerting Signal prior to ICLID transmission Delay 300 * Delay before the start of transmission SendDTMF A14567891C 70 70 * Caller ID string format is AcnnnnnnnC * DTMF "A" and "C" denote the start and end * of the Caller ID transmission, respectively. * 'c' is the call type ("1" indicates a regular * unrestricted subscriber number). * nnnnnnnn is the telephone number. * DTMF duration 70 mS, interdigit dur. 70 mS. * End of Caller ID data transmission Delay 300 Polarity Normal * Restore telephone line polarity to normal Ring 1000 * Programmable ring duration Delay 4000 Hook Off * Call is answered Delay 5000 * Parties talk for 5 seconds Hook on * Line is idle Delay 4000 ** Start of call sequence #2 (345 2297) Using MF signaling ** Caller ID String Format is cnnnnnnnF, where 'c' is the Call Type (1-9),


Page 147

** 'nnnnnnn' is the calling number, and MF "F" is the string terminator. Polarity Reverse * Alerting Signal Delay 350 Tone1Freq 1380 * Set frequency and amplitude for MF Tone2Freq 1500 * Call Type is 1, represented by MF "1" Tone1Level -15 * Tone 1 amplitude is -15 dBm, ref. 600 ohms * It will be actually about 4 - 6dB higher, if * terminal presents a high impedance Tone2Level -13 * Tone 2 is -13dBm, resulting in a 2dB twist * Those signal levels will be used as a default Dualtone 100 * MF tone duration Delay 100 * Interdigit delay Tone1Freq 1500 * MF "3" Tone2Freq 1620 Dualtone 100 * Generate MF "3" Delay 100 * Interdigit delay Tone1Freq 1380 * MF "4" Tone2Freq 1740 Dualtone 100 Delay 100 Tone1Freq 1500 * MF "5" Tone2Freq 1740 Dualtone 100 Delay 100 Tone1Freq 1380 * MF "2" Tone2Freq 1620 Dualtone 100 Delay 100 Tone1Freq 1380 * MF "2" Tone2Freq 1620 Dualtone 100 Delay 100 Tone1Freq 1620 * MF "9" Tone2Freq 1860 Dualtone 100 Delay 100 Tone1Freq 1380 * MF "7" Tone2Freq 1860 Dualtone 100


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Delay 100 Tone1Freq 1860 * MF "F" Caller ID string terminator Tone2Freq 1980 Dualtone 100

* End of Caller ID data transmission Delay 300 Polarity Normal * Restore telephone line polarity to normal Delay 4000 ** End of script


Page 149

CID_BRK.SCR

* This script allows the user to insert a 10 mS carrier in the middle of * the Caller ID data transmission. MODEM Bell202 * Select FSK Modem Type Level 20 * Sets FSK signal level to -20dBm SNR 30 * Sets the Signal-to-Noise Ratio to 30dB Polarity Normal * Sets the telephone line polarity to normal RING * 2 sec ring signal DELAY 500 * 0.5 sec delay SEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU * Sends the channel seizure signal CARRIER ON * Turns the carrier signal on during the silence period DELAY 150 * 150 mS of carrier signal SEND <04><0F>0803031 * Sends Date and Time data DELAY 10 * Interrupt data packet for 10 mS; carrier stays ON SEND 95551234<EC> * Sends remainder of Caller ID data (ICLID Number) DELAY 10 * Keeps Carrier ON for 10 mS at the end. CARRIER OFF * Turns Carrier OFF *End of script


Page 150

CW_CID.SCR

** This script allows the user to simulate a Type-II Caller ID on ** Call Waiting message. Critical timing parameters and signal levels ** are programmable. ** Initialization MODEM BELL202 * Selects Bell 202 Modem Type Level 20 * Sets FSK Signal Level to -20 dBm SNR 30 * Sets Signal to Noise ratio to 30 dB Tone1freq 2130 * Defines CAS tone frequency and amplitude Tone2freq 2750 Tone1Level 15 Tone2Level 18 * Sets Programmable Line Current to 30 mA RingLevel 55 * Sets Ring Level and Frequency RingFreq 20 Polarity Normal * Sets the Line Polarity to Normal ** Start of call sequence RING DELAY 500 Single 2135558763 * Sends a Single Message Type I (on-hook) Caller ID packet WaitForOffHook * Waits for the handset to be lifted Delay 3000 SendSAS 300 * Generates call waiting (440 Hz) SAS alerting signal for 300 mS Dualtone 80 * Generates CAS tone (2130Hz+2750Hz) for 80 mS DtmfAck D * Waits for CPE to send ACK signal (DTMF D) -- function returns * approx. 40 mS after the end of the DTMF tone is detected DELAY 40 * Delay for an additional 40 mS (80 mS. total from end of DTMF D) CARRIER ON * Turns FSK modem carrier ON Delay 60 * Delay for 60 mS StartCWCID * Defines the data content of the Caller ID message DateTime 04151345 ICLID 7035558753 NAME JONES_THOMAS EndCWCID ** End of script


Page 151

DTMFMEAS.SCR

* This script illustrates the use of the DSP/104 card for DTMF digit * analysis. Linecurrent 20 * Line current set at 20 mA WaitforOffhook * go off-hook MeasureDTMF * measure and display DTMF parameters Beep * script ends when user presses ESC or goes * on-hook ** End of script


Page 152

DTMFTEST.SCR

* cover all digits for factory testing of telephones. This test requires * the presence of a DSP/104 card for DTMF digit analysis. ClearLCD LEDBlink 5 WriteCounter1 0 WriteCounter2 0 WriteLCD1 DTMF DIGIT TEST WriteLCD2 PLEASE GO OFF-HOOK WaitforOffHook WriteLCD2 AND DIAL '1' 3 TIMES DisplayPassFail DtmfLowLevelRange -11 -1 DtmfHighLevelRange -11 -1 DtmfLowFreqRange 690 710 * Limits for DTMF 1 DtmfHighFreqRange 1210 1230 * Limits for DTMF 1 DtmfLowLevelRange -11 -1 DtmfHighLevelRange -11 -1 DtmfLowFreqRange 690 710 * Limits for DTMF 1 DtmfHighFreqRange 1210 1230 * Limits for DTMF 1 MeasureDTMF 3 * measure DTMF parameters for three '1' digits IF PASS * If the above DTMF limits are met, the * following commands will run until the ENDIF Display DTMF Measurement Passed. Press any key to continue ENDIF IF FAIL BEEP ENDIF


Page 153

EXAMPLE1.SCR

* This sample script provides examples of Single Message and Multiple Message * Type I Caller ID with Long Distance, Private, and Out of Area Qualifiers and * Single Message and Multiple Message Visual Message Waiting Indication (VMWI). ** Initialization Level 20 * Sets the FSK signal level to -20 dBm SNR 30 * Sets the Signal to Noise ratio to 30 dB Polarity Normal * Sets the Line Polarity to Normal ** Start of call sequence LOOP 3 * Repeats commands between this line and the ENDLOOP * command 3 times RING * Ring for 2 seconds Delay 500 * Delay for 500 mS before sending ICLID data. Note that * the delay maximum limit is 65535 milliseconds. Single 5145551234 * Sends Single Message ICLID packet: channel seizure * signal, ICLID header, length, date, time, and checksum * will automatically be generated. Delay 3200 * Delay for 3.2 seconds. Note that the total silence * since the 1st ring is about 4 seconds including the 500 * mS delay and the time needed to send the ICLID data. RING 2000 * Ring for 2 seconds (2nd ring) Delay 1000 * Delay for 1 second ENDLOOP * Repeat commands between LOOP and ENDLOOP commands. Delay 5000 * 5 second delay RING 1500 * Ring for 1.5 seconds Delay 500 * 0.5 second delay MULTIPLE * Define data content for Multiple Message Caller ID packet DateTime 06151345 * June 15, 1:45 PM ICLID 6175556789 * ICLID Number QUALIFIER L * Call Qualifier (Long Distance) NAME BARNES<20>KIM * Name (Hex 20=Space) ENDMULTIPLE * Build and send Multiple Message Caller ID packet. Delay 6000 * 6 second delay RING 2000 * Ring for 2 seconds


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Delay 500 * Delay for 0.5 second MULTIPLE * Define data content for Multiple Message Caller ID packet DateTime 04151345 * April 15, 1:45 PM DDN 16135551234 * Dialable Directory Number NAMEREASON P * Reason for Name Absence (Private) ENDMULTIPLE * Build and send Multiple Message Caller ID packet. Delay 6000 * 6 second delay RING 2000 * Ring for 2 seconds Delay 500 * Delay for 0.5 second MULTIPLE * Define data content for Multiple Message Caller ID packet DateTime 07050901 * Jul 5, 9:01 AM Reason O * Reason for Number Absence (Out of Area) NAME SMITH<20>JOHN * Name (Hex 20=Space) ENDMULTIPLE * Build and send Multiple Message Caller ID packet. Delay 6000 * 6 second delay ** Activate Single Message Data Format Visual Message Waiting Indicator RING 500 Delay 500 Msg6 Activate * Sends a Single Message VMWI activation signal Delay 6000 ** Deactivate Single Message Data Format Visual Message Waiting Indicator RING 500 Delay 500 Msg6 DeActivate * Sends a Single Message VMWI deactivation signal Delay 6000 ** Activate Multiple Message Data Format Visual Message Waiting Indicator RING 500 Delay 500 MsgMul Activate * Sends a Multiple Message VMWI activation signal Delay 6000


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** Deactivate Multiple Message Data Format Visual Message Waiting Indicator RING 500 Delay 500 MsgMul DeActivate * Sends a Multiple Message VMWI deactivation signal Delay 6000 ** End of script


Page 156

EXAMPLE2.SCR

* This sample script provides examples of Single Message and Multiple Message * Type I Caller ID with Long Distance, Private, and Out of Area Qualifiers. * Four calls are looped sixteen (16 times) for a total of 64 calls. ** Initialization Level 40 * Sets the FSK signal level to -40 dBm SNR 20 * Sets the Signal to Noise ratio to 20 dB Polarity Normal * Sets the Line Polarity to Normal ** Start of call sequence Loop 16 * Repeats commands between this line and the ENDLOOP * command 16 times - for a total of 64 phone calls ** First Call RING * Ring for 2 seconds (Note that the default ring duration * is 2 seconds). DELAY 500 * Delay for 500 mS before sending ICLID data. Note that * the delay maximum limit is 65535 milliseconds. Single 6125559041 * Sends Single Message ICLID packet: channel seizure * signal, ICLID header, length, date, time, and checksum * will automatically be generated. Delay 3200 * Delay for 3.2 seconds (silence between rings). Note that the * total silence since the 1st ring is about 4 seconds including * the 500 mS delay and the time needed to send the ICLID data. RING * Ring for 2 seconds (2nd ring) Delay 3000 * 3 second delay ** Second Call RING 1500 * Ring for 1.5 seconds Delay 500 * Delay for 500 mS Multiple * Define data content for Multiple Message Caller ID packet DateTime 06151345 * June 15, 1:45 PM ICLID 3128365555 * ICLID number DDN 13128365555 * Dialable Directory Number QUALIFIER L * Call Qualifier (Long Distance) NAME SMITH<20>MIKE * Name (Hex 20=Space) ENDMULTIPLE * Build and send Multiple Message Caller ID packet. Delay 8000 * 8 second delay


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** Third Call RING * Ring for 2 seconds Delay 500 * Delay for 500 mS Multiple * Define data content for Multiple Message Caller ID packet DateTime 04151345 * April 15, 1:45 PM DDN 8447666 * Dialable Directory Number NAMEREASON P * Reason for Name Absence (Private) ENDMULTIPLE * Build and send Multiple Message Caller ID packet. Delay 3200 * Delay for 3.2 seconds (silence between rings). Note that the * total silence since the 1st ring is about 4 seconds including * the 500 mS delay and the time needed to send the ICLID data. RING * Ring for 2 seconds (2nd ring) Delay 7000 * 7 sec delay. ** Fourth Call RING * Ring for 2 seconds Delay 500 * Delay for 500 mS Multiple * Define data content for Multiple Message Caller ID packet DateTime 07050901 * Jul 5, 9:01 AM Reason O * Reason for Number Absence (Out of Area) NAME JONES<20>MARY * Name (Hex 20=Space) ENDMULTIPLE * Build and send Multiple Message Caller ID packet. Delay 4500 * 4.5 second delay ENDLOOP * Repeats commands between LOOP and ENDLOOP commands. ** End of script


Page 158

FAXTEST.SCR

* This sample script demonstrates a GIII fax test including: sending a FAX * from the unit under test to the 3500 and receiving a FAX at the unit * under test from the 3500. ** Initialization Level 20 * Sets DTMF to -20 dBm Noise off * Turns Noise Off on the line ringlevel 70 * Sets the Ring Voltage to 70 Vrms ringfreq 25 * Sets the Ring Frequency to 25 Hz LineCurrent 30 * Sets the Line Current to 30 mA Display Send a FAX from the unit under test to the Model 3500. WaitForCall * Waits for the unit under test (i.e. FAX machine) * to go off-hook and dial a test number followed by * the # key. Delay 100 * Delay for 100 mS ReceiveFax TestFax * ReceiveFax provides all the handshaking * necessary to receive a test fax from * the unit under test. The received FAX is stored * as a file named 'TESTFAX'. FaxToVGA TestFax * Displays the contents of "Testfax". Pause * Pauses until a key is pressed on the keyboard. Display Receive a FAX at the unit under test from the Model 3500. LineCurrent 10 * Sets the Line Current to 10 mA MakeCall * Rings the unit under test using ring levels and * frequencies described in the initialization section, * until the external unit answers. A 2 second ON/4 second * OFF ring cadence is used. LineCurrent 30 * Sets the Line Current to 30 mA (after the unit under * test goes off-hook. Delay 100 * Delay for 100 mS SendFax TestFax * SendFax provides all the handshaking necessary * to send a test fax to the unit under test. The 3500 * faxes the file named 'TESTFAX'. LineCurrent 10 * Sets the Line Current back to 10 mA ** End of script


Page 159

FRANCE.SCR

********************************************************************************************** ** This script simulates the on-hook Caller ID for France as described in ** ** the France Telecom CNET specification DT/LAA/TCS/TRA/94-332 ed.4. ** ** ** *********************************************************************************************** ** Written for the Rochelle 3400, 3410, and 3500 Caller ID Simulators. ** ** Updated on 7/22/1999. ** *********************************************************************************************** ** Initialization - Use default on-hook CO voltage level MODEM V23 * Selects V23 Modem Type Level -20 * FSK Transmit Level is -20 dBm (ref. 600 ohms). Since we * are transmitting into a high impedance load, the actual * signal level will be about 4-6 dB higher. SNR 35 * FSK signal-to-noise ratio set at 35 dB RingLevel 55 * Set ring level to 55 VAC RingFreq 25 * Set ring frequency to 25 Hz * Start of call sequence Ring 250 * Alerting Signal - 250 mS. Ring - must be 200-300 mS. Delay 650 * Delay before start of transmission - must be 500-800 mS. MULTIPLE * Caller ID data content DATETIME 10201525 ICLID 0296056789 ENDMULTIPLE Delay 350 * Delay before normal ringing - must be 200-500 mS. Ring 1000 * Second ring Delay 3000 * Silence between rings Ring 1000 * Third ring ** End of script


Page 160

GERMANY.SCR

********************************************************************************************** ** This script simulates the on-hook Caller ID for Germany according to ** ** German Telekom regulation BAPT 223 ZV5. It references the ETSI spec. ** ** ETS 300 659-1. ** ** ** ********************************************************************************************** ** Written for the Rochelle 3400, 3410, and 3500 Caller ID Simulators. ** ** Updated on 7/26/1999. ** *********************************************************************************************** ** Initialization - Use default on-hook CO voltage level MODEM V23 * Selects V23 FSK Modem Level -20 * FSK Transmit Level is -20 dBm ref. 600. Since we * are transmitting into a high impedance load, the * actual level will be approx. 4-6dB higher. SNR 35 * FSK Signal-to-noise ratio set at 35 dB RingLevel 55 RingFreq 25 * First Call - Calling Number with Date and Time information Ring 600 * Alerting ring can be between 250 and 1200 mS Delay 600 * Can be between 500 and 2000 mS SEND UUUUUUUUUUUUU * Channel Seizure with 130 bits, range (96 - 316 bits) CARRIER ON DELAY 106 * 127 bits of mark signal, range (55 - 205 bits) SEND <80><14><01><08>02201018<02><08>42457645# * Caller ID data (call from * 42457645 on Feb. 20 10:18AM) Delay 10 CARRIER OFF Delay 250 * must be greater than or = to 200 mS Ring 1000 * Second ring Delay 5000 * Silence between ring Ring 1000 * Third ring Delay 7000 * Second Call - Number Unavailable Ring 600 * Alerting ring can be between 250 and 1200 mS


Page 161

Delay 600 * Can be between 500 and 2000 mS SEND UUUUUUUUUUUUU * Channel Seizure with 130 bits, range (96 - 316 bits) CARRIER ON DELAY 106 * 127 bits of mark signal, range (55 - 205 bits) SEND <80><0D><01><08>02201018<04><01>O# * Caller ID data (Number Unavailable) Delay 10 CARRIER OFF Delay 250 * must be greater than or = to 200 mS Ring 1000 * Second ring Delay 5000 * Silence between rings Ring 1000 * Third ring Delay 7000 * Third Call - Visual Message Waiting ON Ring 600 * Alerting ring can be between 250 and 1200 mS Delay 600 * Can be between 500 and 2000 mS SEND UUUUUUUUUUUUU * Channel Seizure with 130 bits, range (96 - 316 bits) CARRIER ON DELAY 106 * 127 bits of mark signal, range (55 - 205 bits) SEND <82><17><01><08>02201018<02><08>42457645<0B><01><FF># * Message Waiting * Indication data Delay 10 CARRIER OFF Delay 250 * must be greater than or = to 200 mS Ring 1000 * Second ring Delay 5000 * Silence between rings Ring 1000 * Third ring Delay 3000 ** End of script


Page 162

HOLLAND.SCR

** This script allows the user to simulate two calls using the Dutch format ** for Calling Line Identification Presentation (CLIP), according to the ** standard T 11-12E, Version 4. The first call uses nominal DTMF tones, ** while the second call uses dual programmable sinewave generators to ** vary the frequency, amplitude, twist, and duration of the DTMF tones. ** ** Initialization RingLevel 65 * set ring voltage at 65VacRMS Ringfreq 25 * set ring frequency at 25Hz Level -10 * set DTMF at -10dBm per tone (ref. 600 ohms) * since we are transmitting into a high-impedance * load, the actual tone levels will be about 4-6dB * higher. ** Start of call sequence #1 (Call from 0324871985) Polarity Reverse Delay 500 * Must be 300 - 800 mS. SendDTMF D0324871985C 80 75 * Generate CLIP string along with start and * stop characters. Each DTMF digit is ON * for 80 mS. with an interdigit delay of * 75 mS. Delay 250 * Must be 0 - 1000 mS. Ring 1000 * First ring Delay 4000 Hook Off * Incoming call is answered Delay 2000 Polarity Normal * Restore telephone line polarity to normal Delay 5000 Hook on * End of call ** Start of call sequence #2 (Unknown Number) ** Format: D0000000000C Polarity Reverse Delay 500 * Must be between 300 and 800 mS. Tone1Freq 941 * Set frequency and amplitude for DTMF D (start character) Tone2Freq 1633


Page 163

Tone1Level -10 * Tone 1 is -10dBm Tone2Level -8 * Tone 2 is -8dBm, resulting in a 2dB twist Dualtone 70 * Generate DTMF D Delay 70 * Interdigit delay Tone1Freq 941 * Set tone frequencies to DTMF 0 - same amplitude as D Tone2Freq 1336 Dualtone 70 * Generate DTMF 0 ten times Delay 70 * 70 mS. ON, 70 mS. OFF Dualtone 70 Delay 70 Dualtone 70 Delay 70 Dualtone 70 Delay 70 Dualtone 70 Delay 70 Dualtone 70 Delay 70 Dualtone 70 Delay 70 Dualtone 70 Delay 70 Dualtone 70 Delay 70 Dualtone 70 Delay 70 Tone1Freq 852 * Set frequencies to DTMF C (terminating character) Tone2Freq 1633 Dualtone 70 * Generate DTMF C Delay 250 * Delay between the end of DTMF string and ringing Ring 1000 Delay 4000 Hook Off * Incoming call answered for 7 sec. Delay 2000 Polarity Normal * Restore normal polarity Delay 5000 Hook on ** End of script


Page 164

JAPAN.SCR

** This script simulates the Calling Line Identification (CLI) signal ** defined in NTT's Specifications. Critical timing parameters and ** signal levels are controllable. ** Initialization MODEM V23 * Selects V23 FSK Modem Type LEVEL 20 * Sets the FSK Signal Level to -20 dBm SNR 30 * Sets the Signal-to-Noise Ratio to 30 dB RingLevel 55 * Sets the Ring Level to 55 Vrms RingFreq 20 * Sets the Ring Frequency to 20 Hz ** Begin Caller ID Sequence Polarity Reverse * Reverses the line polarity Delay 150 * Delay for 150 mS (should be >=100 mS) Ring 500 * Ring for 500 mS - CPE Activation Ringing (CAR) Delay 500 * Delay for 500 mS Ring 500 Delay 500 Ring 500 Delay 500 Ring 500 Delay 500 Ring 500 Delay 500 Ring 500 WaitforOffHook 1000 * Wait for Off-Hook for 1000 mS - Should be already off-hook ** Data Transmission Delay 200 * Delay for 200 mS before commencing data transmission Carrier ON * Turn carrier ON Delay 50 * Delay for 50 mS so that carrier is ON for that period PARITY EVEN * Set parity SEND <10><01><07><10><02><40><0C><02><0A>0335092111<10><03> * Send Caller ID data PARITY NONE * Set parity SEND <8A><D3> * Send 16-bit Checksum (CRC-CCITT) from header <07> to ETX <03> Delay 20 * Delay for 20 mS


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Carrier OFF * Drop carrier WaitForOnhook 1000 * Wait for On-Hook for 1000 mS Delay 400 * Delay for 400 mS ** Begin Ring Sequence Ring 1000 * Generate first ring Delay 3000 Ring 1000 Delay 3000 Ring 1000 Delay 3000 Ring 1000 Delay 3000 * End of script


Page 166

KOREA.SCR

********************************************************************************************** ** This script simulates the on-hook Caller ID for Korea as described in ** ** the Korea Telecom Standard Code: TSX-K193-01, revised in April 2000. ** ** ** *********************************************************************************************** ** Written for the Rochelle 3400, 3410, and 3500 Caller ID Simulators. ** ** Updated on 4 April 2001. ** *********************************************************************************************** ** Initialization - Use default on-hook CO voltage level MODEM BELL202 * Selects Bell 202 FSK Modem Type Level -20 * FSK Transmit Level is -20 dBm (ref. 600 ohms). Since we * are transmitting into a high impedance load, the actual * signal level will be about 4-6 dB higher. SNR 35 * FSK signal-to-noise ratio set at 35 dB RingLevel 55 * Set ring level to 55 VAC RingFreq 25 * Set ring frequency to 25 Hz * Start of call sequence Ring 1000 * Alerting Signal - Ring - must be 0-1000 mS Delay 600 * Delay before start of transmission - must be 500-700 mS SEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU * Channel Seizure - 300 bits of 0101 CARRIER ON DELAY 150 * 180 mark bits SEND<80><1F><01><08>04050836<02><09>023470000<07><08><B1><AA><BC><A1><C0><F9><C7>SEND <FD># * Send Caller ID packet. * Date & Time: 04/05 @ 08:36 * Calling Number: 023470000 * Calling Name (KSC5601-encoded) B1AA,BCA1,C0F9,C7FD * Checksum (automatically calculated) DELAY 10 * Keep carrier ON for an extra 10 mS CARRIER OFF DELAY 500 * Delay before second Ring - must be > 250 mS RING 1000 * Second Ring ** End of script


Page 167

LONG_CAS.SCR

** This script allows the user to generate a long CAS tone at ** selected frequency and amplitude levels. Tone1Freq 2130 * Sets the frequency for CAS tone 1 Tone2Freq 2750 * Sets the frequency for CAS tone 2 Tone1Level -22 * Sets the amplitude for CAS tone 1 Tone2Level -22 * Sets the amplitude for CAS tone 2 Dualtone 10000 * Generates CAS tone for the specified * duration ** End of script


Page 168

LOOPLEN.SCR

* This script provides examples for simulating different loop lengths, * including Short (0 km), Medium (3 km), and Long (6 km), using a 12kHz * signal at 0 dBm. ** Initialization LineCurrent 40 * Sets the Line Current to 40 mA LEVEL 20 * Sets the FSK Signal Level to -20 dBm SNR 40 * Sets the Signal-to-Noise Ratio to 40 dB SPMLEVEL 0 * Sets the Subscriber Pulse Metering Level to 0 dBm Display SPM Tone on a 0 Km Artificial Line LineLoop Short SPMTone 12000 3000 * Generates a 12 kHz signal for 3 seconds Delay 2000 Display SPM Tone on a 3 Km (24AWG non-loaded) Artificial Line LineLoop Medium SPMTone 12000 3000 * Generates a 12 kHz signal for 3 seconds Delay 2000 Display SPM Tone on a 6 Km (24AWG non-loaded) Artificial Line LineLoop Long SPMTone 12000 3000 * Generates a 12 kHz signal for 3 seconds Delay 2000 LineCurrent 10 * Sets the Line Current back to 10 mA *end of script


Page 169

MEXICO.SCR

*********************************************************************************************** * Mexico Script -- In Spanish. Illustrates Dual-Mode operation by ** * generating 3 Caller ID calls with DTMF signaling, and another 3 with ** * FSK. ** *********************************************************************************************** * Script para la prueba funcional en formato DTMF y FSK del identificador ** * de llamadas. El script debe ser ejecutado desde el programa 3500MENU ** *********************************************************************************************** Level 20 * Fija l nivel de la se¤al a -20 dBm SNR 30 * Fija la relacion se¤al a ruido a 30 dB Polarity Normal * Fija la polaridad normal en la linea DELAY 500 **************************************************************************** * PRUEBA DE DTMF *************************************************************************** ***** LLAMADA DTMF "1" POLARITY REVERSE * Cambio de polaridad DELAY 300 * Retardo de 300 mseg. antes de enviar * los datos DTMF senddtmf D 150 100 SENDDTMF 1118888888C 100 100 * Envia el paquete DTMF DELAY 300 * Retardo de 300 mseg. RING 1000 * Se¤al de 1 segundo de ring DELAY 300 RING 300 POLARITY NORMAL * Regresa la inversion de polaridad ***** FIN DE LA LLAMADA 1 DELAY 500 ***** LLAMADA DTMF "2" POLARITY REVERSE * Cambio de polaridad DELAY 300 * Retardo de 300 mseg. antes de enviar * los datos DTMF senddtmf D 150 100


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SENDDTMF 2228888888C 100 100 * Envia el paquete DTMF DELAY 300 * Retardo de 300 mseg. RING 1000 * Se¤al de 1 segundo de ring DELAY 300 RING 300 POLARITY NORMAL * Regresa la inversion de polaridad ***** FIN DE LA LLAMADA 2 DELAY 500 ***** LLAMADA DTMF "3" POLARITY REVERSE * Cambio de polaridad DELAY 300 * Retardo de 300 mseg. antes de enviar * los datos DTMF senddtmf D 150 100 SENDDTMF 3338888888C 100 100 * Envia el paquete DTMF DELAY 300 RING 1000 DELAY 300 RING 300 POLARITY NORMAL * Regresa la inversion de polaridad ***** FIN DE LA LLAMADA 3 DELAY 500 *************************************************************************** * PRUEBA DE FSK *************************************************************************** ***** LLAMADA FSK "1" RING 300 DELAY 1800 RING 300 * Ring the line for 300 mS. DELAY 500 * delay 500 mS before sending ICLID data. MULTIPLE DATETIME 08291345 * ICLID 8888888888 * Send FSK packet. NAME "MENSAJE-FSK-#1" * ENDMULTIPLE *


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DELAY 300 RING 1000 DELAY 500 ***** LLAMADA FSK "2" RING 300 * Ring the line for 300 mS. DELAY 500 * delay 500 mS before sending ICLID data. MULTIPLE DATETIME 08291345 ICLID 8888888888 * Send FSK packet. NAME "MENSAJE-FSK-#2" ENDMULTIPLE DELAY 300 RING 1000 DELAY 500 ***** LLAMADA FSK "3" RING 300 * Ring the line for 300 mS. DELAY 500 * delay 500 mS before sending ICLID data. MULTIPLE DATETIME 08291345 * ICLID 8888888888 * Send FSK packet. NAME "MENSAJE-FSK-#3" * ENDMULTIPLE * RING 1000 DELAY 500 *************************************************************************** * * FIN DE LA PRUEBA * ***************************************************************************


Page 172

NORWAY.SCR

************************************************************************************* ** This script simulates the on-hook Caller ID for Norway based on ** ** Telenor's "Utilization of the PSTN protocol over the local loop ** ** for display-related services" specification, dated 13 Jan. 1997. ** ** ** ************************************************************************************* ** Written for the Rochelle 3400, 3410, and 3500 Caller ID Simulators ** ** Updated on 7/26/1999. ** ************************************************************************************* ** Initialization - Use default on-hook CO voltage level MODEM V23 * Selects V23 FSK Modem Level -20 * FSK Transmit Level is -20 dBm ref. 600 ohms. * Since we are transmitting into a high * impedance load, the actual level will be * approx. 4-6dB higher. SNR 35 * FSK Signal-to-noise ratio set at 35 dB RingLevel 55 RingFreq 25 ** Start of call sequence * On-hook (Type I) Caller ID Simulation: Ring 1000 * Ring for 1000 mS Delay 500 * Quiet interval between rings for 500 mS SEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU * 250 mS of channel seizure Carrier ON Delay 150 * Carrier ON for 150 mS or 180 bits. StartCLI * This begins the Caller ID packet DATETIME 11071530 * Date and time: Nov 7, 3:30pm CALLING 022448246 * Calling Number 022448246 EndCLI * Ends the Caller ID packet, computes the checksum * and sends it out. Delay 10 * Carrier ON for another 10 mS Carrier OFF Delay 3000 * OFF-Hook (Type II) Caller ID Simulation: WaitForOffHook * Wait for the user to go off-hook Tone1freq 425 * Program SAS tone to be 425 Hz at -25 dBm Tone1level -25


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Tone1 200 * Turn on SAS tone for 200 mS delay 600 * First 600 mS pause period Tone1 200 * Turn on SAS tone for another 200 mS delay 1000 * 1000 mS pause (can be up to 10 sec.) * Define the Alert Tone characteristics Tone1freq 2130 * Alert tone 1 frequency 2130 Hz Tone1level -22 * Alert tone 1 amplitude -22 dBm Tone2freq 2750 * Alert tone 2 frequency 2750 Hz Tone1level -22 * Alert tone 2 amplitude -22 dBm Dualtone 80 * Generate Alert Tone (DT-AS) for 80 mS DTMFAck D 200 * Wait for DTMF Ack. for up to 200 mS. Delay 40 Level -20 * FSK amplitude set at -20 dBm (ref. 600) Carrier ON * Start of FSK signaling Delay 66 * Carrier ON for 66 mS StartCLI * This begins the Caller ID packet DATETIME 11071530 * Date and time: Nov 7, 3:30pm CALLING 022448246 * Calling Number 022448246 EndCLI Delay 10 Carrier OFF * Turn off the CARRIER * End of Type II transmission ** End of Script


Page 174

PORTUGAL.SCR

********************************************************************************************** ** This script simulates the on-hook Caller ID for Portugal according to ** ** the Portugal Telecom functional specification No. 122, dated Feb. 1999. ** ** This specification references the ETSI standards ETS 300 659-1 and -2. ** ** ** *********************************************************************************************** ** Written for the Rochelle 3400, 3410, and 3500 Caller ID Simulators. ** ** Updated on 8/27/1999. ** *********************************************************************************************** ** Initialization - Use default on-hook CO voltage level MODEM V23 * Selects V23 Modem Type Level -20 * FSK Transmit Level is -20 dBm (ref. 600 ohms). Since we * are transmitting into a high impedance load, the actual * signal level will be about 4-6 dB higher. SNR 35 * FSK signal-to-noise ratio set at 35 dB RingLevel 55 * Set ring level to 55 VAC RingFreq 25 * Set ring frequency to 25 Hz * Start of call sequence Ring 250 * Alerting Signal - 250 mS. Must be 200-300 mS Delay 650 * Delay before start of transmission - must be 500-800 mS MULTIPLE * Caller ID data content DATETIME 10201525 ICLID 0296056789 ENDMULTIPLE Delay 350 * Delay before normal ringing - must be 200-500 mS Ring 1000 * Second ring Delay 3000 * Silence between rings Ring 1000 * Third ring ** End of script


Page 175

PULSE.SCR

* This script examples illustrates the use of the displaypulse command * to show the dialed pulse digits. Display LIFT HANDSET AND DIAL WaitforOffHook displaypulse ** End of script


Page 176

PULSEM.SCR

* This script example illustrates the use of the Measurepulse command, which * provides timing information and PPS in response to pulse dialing. Waitforoffhook Display LIFT HANDSET AND BEGIN DIALING measurepulse Waitforonhook ** End of script


Page 177

PULSETST.SCR

* This script performs pulse measurements and increments the test counters * on the 3500 based on the results. If a pulse is out of range, the test * stops ClearLCD WriteCounter1 0 WriteCounter2 0 LEDBlink 4 WriteLCD1 PLEASE GO OFF-HOOK WriteLCD2 AND DIAL 10 DIGITS WaitforOffHook DisplayPassFail PulseMakeRange 35 45 PulseBreakRange 55 65 PulsePPSRange 9 11 MeasurePulse 10 IF FAIL BEEP ENDIF ** End of script


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SAUDIA.SCR ********************************************************************************************** ** This script simulates the on-hook Caller ID for Saudi Arabia, based on ** ** the standard TSP 3030 Issue 01. The call format for Saudi Arabia is ** ** DczxxxxxxxC where D = DTMF "D", c (optional) = category digit (0 thru 9) ** ** z = zone of the calling party (city code), xxxxxxx = 7 digit telephone ** ** number. C = DTMF "C" stop code. ** ** ** *********************************************************************************************** ** Written for the Rochelle 3400, 3410, and 3500 Caller ID Simulators. ** ** Updated on 7/26/1999. ** ********************************************************************************************** ** Initialization - Use default on-hook CO voltage level RingLevel 55 * Set ring voltage at 55Vac RMS Ringfreq 25 * Set ring frequency at 25Hz Level -15 * Set DTMF at -15dBm (Ref. 600 ohms). * Since we are transmitting into a high-impedance * load, the actual signal level will be approx. * 6dB higher. ** Start of call sequence #1 (Call from 12-345-6789) using DTMF signaling SendDTMF D123456789C 70 65 *Generate CLI string along with start character, * DTMF D, category of call (1 - regular subscriber), * stop character, DTMF C. Each DTMF digit is ON for * 70 mS. with an interdigit delay of 65 mS. Delay 300 * This is a programmable delay up to 65535 mS Ring 1000 * Programmable ring duration Delay 4000 ** End of script


Page 179

SMS.SCR

********************************************************************************************** ** This script simulates 2 Supplementary Data Links Messages according ** ** to the ETSI draft specification ETS EN 300 659-3 V1.3.1 ** *********************************************************************************************** ** Written for the Rochelle 3400, 3410, and 3500 Caller ID Simulators. ** ** Written on October 20, 2000 ** *********************************************************************************************** ** Initialization - Use default on-hook CO voltage level MODEM V23 * Selects V23 FSK Modem Level -20 * FSK Transmit Level is -20 dBm ref. 600. Since we * are transmitting into a high impedance load, the * actual level will be approx. 4-6dB higher. SNR 35 * FSK Signal-to-noise ratio set at 35 dB * Terminal Alerting Signal (TAS) can be a Dual Tone (DT-AS), a Ring Pulse * (RP-AS), or a line reversal followed by DT-AS. In these examples, we will * use the third method. * First Message - Advice of Charge (Date & Time, CLI, Charge Parameter) Polarity Reverse Delay 150 * Must be greater than 100 mS Tone1Freq 2130 * DT-AS Definition Tone1Level -15 Tone2Freq 2750 Tone2Level -15 DualTone 100 * DT-AS Signal Delay 200 SEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU * Channel Seizure with 300 bits. CARRIER ON DELAY 150 * 180 bits of mark signal SEND <86><26><01><08>10201018<02><0A>0424576459<20><0E>FRF<00>0000023<2C>45# * Date/Time: 20.10 @ 10:18AM * CLI: 0424576459 * Charge Amount: 23,45 FRF * # at the end calculates and transmits the checksum


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Delay 5 CARRIER OFF Delay 100 Polarity Normal * Restore normal polarity Delay 4000 * Second Message - Short Message Service (Date & Time, Display Information) Polarity Reverse Delay 150 * Must be greater than 100 mS Tone1Freq 2130 * DT-AS Definition Tone1Level -15 Tone2Freq 2750 Tone2Level -15 DualTone 100 * DT-AS Signal Delay 200 SEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU * Channel Seizure with 300 bits. CARRIER ON DELAY 150 * 180 bits of mark signal SEND <89><22><01><08>10201018<50><16><04>DRINK<20>COCA<20>COLA<20>TODAY# * Date/Time: 20.10 @ 10:18AM * Advertisement / Not stored * DRINK COCA COLA TODAY * # to generate checksum Delay 5 CARRIER OFF Delay 100 Polarity Normal * Restore normal polarity Delay 4000 ** End of script


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SNR_TEST.SCR ** Signal to noise Sensitivity Test ** SNR 40,30,20 and 10 dB at signal levels of 5,10,15,20,25,30,35,40,45 dBm ** Test helps identify signal drop out points for Caller ID telephones and ** display units * Initialization RINGLEVEL 55 MODEM BELL202 * Start of call sequence Level 5 SNR 40 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 1 NAME LVL5_SNR40 ENDMULTIPLE * DELAY 1200 Level 10 SNR 40 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 2 NAME LVL10_SNR40 ENDMULTIPLE * DELAY 1200 Level 15 SNR 40 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 3 NAME LVL15_SNR40


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ENDMULTIPLE * DELAY 1200 Level 20 SNR 40 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 4 NAME LVL20_SNR40 ENDMULTIPLE * DELAY 1200 Level 25 SNR 40 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 5 NAME LVL25_SNR40 ENDMULTIPLE * DELAY 1200 Level 30 SNR 40 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 6 NAME LVL30_SNR40 ENDMULTIPLE * DELAY 1200 Level 35 SNR 40 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 7 NAME LVL35_SNR40 ENDMULTIPLE * DELAY 1200


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Level 40 SNR 40 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 8 NAME LVL40_SNR40 ENDMULTIPLE * DELAY 1200 Level 45 SNR 40 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 9 NAME LVL45_SNR40 ENDMULTIPLE * DELAY 1200 Level 5 SNR 30 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 10 NAME LVL5_SNR30 ENDMULTIPLE * DELAY 1200 Level 10 SNR 30 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 11 NAME LVL10_SNR30 ENDMULTIPLE * DELAY 1200 Level 15 SNR 30 RING 500


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DELAY 650 MULTIPLE DateTime 03141322 ICLID 12 NAME LVL15_SNR30 ENDMULTIPLE * DELAY 1200 Level 20 SNR 30 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 13 NAME LVL20_SNR30 ENDMULTIPLE * DELAY 1200 Level 25 SNR 30 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 14 NAME LVL25_SNR30 ENDMULTIPLE * DELAY 1200 Level 30 SNR 30 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 15 NAME LVL30_SNR30 ENDMULTIPLE * DELAY 1200 Level 35 SNR 30 RING 500 DELAY 650 MULTIPLE DateTime 03141322


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ICLID 16 NAME LVL35_SNR30 ENDMULTIPLE * DELAY 1200 Level 40 SNR 30 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 17 NAME LVL40_SNR30 ENDMULTIPLE * DELAY 1200 Level 45 SNR 30 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 18 NAME LVL45_SNR30 ENDMULTIPLE * DELAY 1200 Level 5 SNR 20 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 19 NAME LVL5_SNR20 ENDMULTIPLE * DELAY 1200 Level 10 SNR 20 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 20 NAME LVL10_SNR20 ENDMULTIPLE


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* DELAY 1200 Level 15 SNR 20 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 21 NAME LVL15_SNR20 ENDMULTIPLE * DELAY 1200 Level 20 SNR 20 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 22 NAME LVL20_SNR20 ENDMULTIPLE * DELAY 1200 Level 25 SNR 20 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 23 NAME LVL25_SNR20 ENDMULTIPLE * DELAY 1200 Level 30 SNR 20 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 24 NAME LVL30_SNR20 ENDMULTIPLE * DELAY 1200 Level 35


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SNR 20 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 25 NAME LVL35_SNR20 ENDMULTIPLE * DELAY 1200 Level 40 SNR 20 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 26 NAME LVL40_SNR20 ENDMULTIPLE * DELAY 1200 Level 45 SNR 20 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 27 NAME LVL45_SNR20 ENDMULTIPLE * DELAY 1200 Level 5 SNR 20 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 28 NAME LVL5_SNR10 ENDMULTIPLE * DELAY 1200 Level 10 SNR 10 RING 500 DELAY 650


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MULTIPLE DateTime 03141322 ICLID 29 NAME LVL10_SNR10 ENDMULTIPLE * DELAY 1200 Level 15 SNR 10 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 30 NAME LVL15_SNR10 ENDMULTIPLE * DELAY 1200 Level 20 SNR 10 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 31 NAME LVL20_SNR10 ENDMULTIPLE * DELAY 1200 Level 25 SNR 10 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 31 NAME LVL25_SNR10 ENDMULTIPLE * DELAY 1200 Level 30 SNR 10 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 32


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NAME LVL30_SNR10 ENDMULTIPLE * DELAY 1200 Level 35 SNR 10 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 33 NAME LVL35_SNR10 ENDMULTIPLE * DELAY 1200 Level 40 SNR 10 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 34 NAME LVL40_SNR10 ENDMULTIPLE * DELAY 1200 SNR 10 RING 500 DELAY 650 MULTIPLE DateTime 03141322 ICLID 35 NAME LVL45_SNR10 ENDMULTIPLE ** End of script


Page 190

SPAIN.SCR ************************************************************************************* ** This script simulates the on-hook Caller ID for Spain as reported by ** ** industry sources. It is based on the ETSI standard ETS 300 659-1. ** ** ** ************************************************************************************* ** Written for the Rochelle 3400, 3410, and 3500 Caller ID Simulators. ** ** Updated on 7/26/1999. ** ************************************************************************************* ** Initialization - Use default on-hook CO voltage level MODEM V23 * Selects V23 FSK Modem Level -20 * FSK Transmit Level is -20 dBm ref. 600. Since we * are transmitting into a high impedance load, the * actual level will be approx. 4-6dB higher. SNR 35 * FSK Signal-to-noise ratio set at 35 dB RingLevel 55 RingFreq 25 ** Start of call sequence Ring 1500 * First ring Delay 500 * Must be at least 500 mS MULTIPLE * Start collecting Multiple Message ICLID DateTime 06151345 * June 15, 1:45 PM ICLID 6175556789 * Calling Number (ICLID) ENDMULTIPLE * Build and send Multiple Message format packet. * The MULTIPLE command generates channel seizure, mark (carrier) signal then * the proper message type, message length, parameter types, parameter lengths, * and checksum. Delay 2300 * Please note total Ring off time is 3 seconds Ring 1500 * Second ring Delay 6000 * The first call was not answered. * Second Call Sequence Ring 1500 * Second telephone call. Delay 500


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* Below is an example of building the multiple message signal from * the ground up. The duration of the channel seizure and carrier ON * periods can be adjusted for maximum flexibility. SEND UUUUUUUUUUUUUUUUUUUU * Channel Seizure signal * 300 bits or 250 mS. CARRIER ON DELAY 150 * 180 bits of mark (carrier) signal SEND <80><16><01><08>06151345<02><0A>6175556789# Delay 10 * Keep carrier ON for an extra 10 mS. CARRIER OFF Delay 2500 Ring 1500 * Second ring Delay 3000 * Silence between rings Ring 1500 * Third ring Delay 3000 ** End of script


Page 192

SWEDEN.SCR ** This script allows the user to simulate two calls using the Swedish format ** for calling line identification. The first call uses nominal DTMF tones, ** while the second call uses two programmable sinewave generators to ** vary the frequency, amplitude, twist, and duration of the DTMF tones. ** Initialization LineCurrent 30 * Programmable Line current = 30 mA RingLevel 65 * set ring voltage at 65VacRMS Ringfreq 25 * set ring frequency at 25Hz Level 10 * set DTMF at -10dBm ** Start of call sequence #1 (Call from 0324871985) Polarity Reverse Delay 250 SendDTMF D0324871985C 70 65 * Generate CLI string along with start and * stop characters. Each DTMF digit is ON for * 70 mS. with an interdigit delay of 65 mS Delay 250 Polarity Normal * Restore telephone line polarity to normal Ring 1000 Delay 4000 Hook Off Delay 5000 Hook on ** Start of call sequence #2 (Restricted Call) Polarity Reverse Delay 250 Tone1Freq 770 * Set frequency and amplitude for DTMF B (start character) Tone2Freq 1633 Tone1Level 10 * Tone 1 is -10dBm Tone2Level 8 * Tone 2 is -8dBm, resulting in a 2dB twist Dualtone 70 * Generate DTMF B Delay 65 * Interdigit delay Tone1Freq 697 * 'DTMF 1' Tone2Freq 1209 Tone1Level -10 Tone2Level -8 Dualtone 70 * Generate DTMF 1 Delay 65 * Interdigit delay


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Tone1Freq 941 * 'DTMF 0' Tone2Freq 1336 Tone1Level -10 Tone2Level -8 Dualtone 70 * Generate DTMF 0 Delay 65 * Interdigit delay Tone1Freq 852 * 'DTMF C' Tone2Freq 1633 Tone1Level -10 Tone2Level -8 Dualtone 70 * Generate DTMF C Delay 250 * Delay between the end of DTMF string and ringing Polarity Normal * Restore normal polarity Ring 1000 Delay 4000 Hook Off Delay 5000 Hook on ** End of script


Page 194

TAIWAN.SCR * This script lists the conformance tests listed by the Taiwan Directorate * General of Telecommunications guidelines for Caller Identity Service * Type Approval, dated October 1999. This specification references the * ETSI 300-659-1 specifications for Calling Line Identification. ** FSK TESTS * General Setup RINGLEVEL 75 RINGFREQ 20 LINECURRENT 40 MODEM V23 POLARITY NORMAL CLEARLCD WRITELCD1 TAIWAN DGT WRITELCD2 FSK CALLER ID TESTS DELAY 1000 CLEARLCD WRITELCD1 TIMING TOLERANCE WRITELCD2 SECTION 4.3.1 DELAY 500 CLEARLCD WRITELCD1 TEST #1 (DETECT) WRITELCD2 DT1:FSK1 DELAY 500 * Test DT1:FSK1 (Section 4.3.1) TONE1FREQ 2120 TONE2FREQ 2737 TONE1LEVEL -14 * The low freq. tone level equals the high freq. tone * level -6 dB (twist) TONE2LEVEL -8 * The high frequency tone is -10dBv or approx. -10+2 * = -8 dBm DUALTONE 90 DELAY 200 MULTIPLE DATETIME 03241404 ICLID 1111111111 ENDMULTIPLE DELAY 700


Page 195

* Test DT2:FSK1 (Section 4.3.1) TONE1FREQ 2140 TONE2FREQ 2763 TONE1LEVEL -14 TONE2LEVEL -8 CLEARLCD WRITELCD1 TEST #2 (DETECT) WRITELCD2 DT2:FSK1 DELAY 500 DUALTONE 110 DELAY 200 MULTIPLE DATETIME 03241405 ICLID 2222222222 ENDMULTIPLE DELAY 700 * Test DT3:FSK1 (Section 4.3.1) CLEARLCD WRITELCD1 TEST #3 (REJECT) WRITELCD2 DT3:FSK1 DELAY 500 TONE1FREQ 2120 TONE2FREQ 2737 TONE1LEVEL -34 TONE2LEVEL -28 DUALTONE 50 DELAY 200 MULTIPLE DATETIME 03241406 ICLID 000000 ENDMULTIPLE DELAY 700 * Test DT4 (Section 4.3.1) CLEARLCD WRITELCD1 TEST #4 (NO DATA) WRITELCD2 DT4 DELAY 500 TONE1FREQ 2140 TONE2FREQ 2763 TONE1LEVEL -34 TONE2LEVEL -28 DUALTONE 110 DELAY 700 * Test DT5:FSK1 (Section 4.3.1)


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TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #5 (DETECT) WRITELCD2 DT5:FSK1 DELAY 500 DUALTONE 100 DELAY 200 MULTIPLE DATETIME 03241407 ICLID 3333333333 ENDMULTIPLE DELAY 500 CLEARLCD WRITELCD1 FREQ/LVL/TWIST/INTF. WRITELCD2 TOLERANCE (4.4.1) DELAY 700 * Test DT5:FSK1 (Section 4.4.1) TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #6 (DETECT) WRITELCD2 DT5:FSK1 DELAY 500 DUALTONE 100 DELAY 200 MULTIPLE DATETIME 03241408 ICLID 4444444444 ENDMULTIPLE DELAY 700 * Test DT5:FSK2 (Section 4.4.1) TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #7 (DETECT) WRITELCD2 DT5:FSK2 DELAY 500 DUALTONE 100 DELAY 200


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SPACEFREQ 2068 MARKFREQ 1280 SPACELEVEL -28 MARKLEVEL -34 SNR 25 VARFSKSEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU VARFSKCARRIER ON DELAY 67 VARFSKSEND <80><16><01><08>02341409<02><0A>5555555555# DELAY 5 VARFSKCARRIER OFF NOISE OFF DELAY 700 CLEARLCD WRITELCD1 CHANNEL SEIZURE WRITELCD2 SECTION 4.5.1 DELAY 500 * Test DT5:FSK1:TP1 (Section 4.5.1) TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #8 (DETECT) WRITELCD2 DT5:FSK1:TP1 DELAY 500 DUALTONE 100 DELAY 200 SPACEFREQ 2100 MARKFREQ 1300 SPACELEVEL -18 MARKLEVEL -18 VARFSKSEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU VARFSKCARRIER ON DELAY 67 VARFSKSEND <80><30><11><01><01><01><08>08131430<02><0A>08362-5234 VARFSKSEND <03><0B>022343-3657<07><08>y.d.chen# DELAY 5 VARFSKCARRIER OFF DELAY 700 CLEARLCD WRITELCD1 MARK VARIATION WRITELCD2 SECTION 4.5.2 DELAY 500


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* Test DT5:FSK1:TP4 (Section 4.5.2) TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #9 (DETECT) WRITELCD2 DT5:FSK1:TP4 DELAY 500 DUALTONE 100 DELAY 200 SPACEFREQ 2100 MARKFREQ 1300 SPACELEVEL -18 MARKLEVEL -18 VARFSKSEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU VARFSKCARRIER ON DELAY 150 * Assuming a Mark duration of 150 ms (180 bits), specified as MK3 VARFSKSEND <80><30><11><01><01><01><08>08131430<02><0A>08362-5234<03> VARFSKSEND <0B>022343-3657<07><08>y.d.chen# DELAY 5 VARFSKCARRIER OFF DELAY 500 CLEARLCD WRITELCD1 MESSAGE TYPE WRITELCD2 SECTION 4.5.3 DELAY 700 * Test DT5:FSK1:TP5 (Section 4.5.3) TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #10 (DETECT) WRITELCD2 DT5:FSK1:TP5 DELAY 500 DUALTONE 100 DELAY 200 SPACEFREQ 2100 MARKFREQ 1300 SPACELEVEL -18 MARKLEVEL -18 VARFSKSEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU VARFSKCARRIER ON DELAY 67 VARFSKSEND <81><30><11><01><01><01><08>08131430<02><0A>08362-5234<03>


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VARFSKSEND <0B>022343-3657<07><08>y.d.chen# DELAY 5 VARFSKCARRIER OFF DELAY 700 CLEARLCD WRITELCD1 INCORRECT CHECKSUM WRITELCD2 SECTION 4.5.4 DELAY 500 * Test DT5:FSK1:TP6 (Section 4.5.4) TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #11 (REJECT) WRITELCD2 DT5:FSK1:TP6 DELAY 500 DUALTONE 100 DELAY 200 SPACEFREQ 2100 MARKFREQ 1300 SPACELEVEL -18 MARKLEVEL -18 VARFSKSEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU VARFSKCARRIER ON DELAY 67 VARFSKSEND <80><30><11><01><01><01><08>08131430<02><0A>08362-5234<03> VARFSKSEND <0B>022343-3657<07><08>y.d.chen<2D> DELAY 5 VARFSKCARRIER OFF DELAY 700 CLEARLCD WRITELCD1 PRESENTATION LAYER WRITELCD2 SECTION 4.6 DELAY 500 * Test DT5:FSK1:TP7 (Section 4.6) TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #12 (IGNORE) WRITELCD2 DT5:FSK1:TP7 DELAY 500 DUALTONE 100


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DELAY 200 SPACEFREQ 2100 MARKFREQ 1300 SPACELEVEL -18 MARKLEVEL -18 VARFSKSEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU VARFSKCARRIER ON DELAY 67 VARFSKSEND <80><30><11><01><02><01><08>08131430<02><0A>08362-5234<03> VARFSKSEND <0B>022343-3657<07><08>y.d.chen# DELAY 5 VARFSKCARRIER OFF DELAY 700 * Test DT5:FSK1:TP8 (Section 4.6) TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #13 (DETECT) WRITELCD2 DT5:FSK1:TP8 DELAY 500 DUALTONE 100 DELAY 200 SPACEFREQ 2100 MARKFREQ 1300 SPACELEVEL -18 MARKLEVEL -18 VARFSKSEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU VARFSKCARRIER ON DELAY 67 VARFSKSEND <80><2D><01><08>08131430<02><0A>08362-5234<03> VARFSKSEND <0B>022343-3657<07><08>y.d.chen# DELAY 5 VARFSKCARRIER OFF DELAY 700 * Test DT5:FSK1:TP9 (Section 4.6) TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #14 (DETECT) WRITELCD2 DT5:FSK1:TP9 DELAY 500 DUALTONE 100


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DELAY 200 SPACEFREQ 2100 MARKFREQ 1300 SPACELEVEL -18 MARKLEVEL -18 VARFSKSEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU VARFSKCARRIER ON DELAY 67 VARFSKSEND <80><27><11><01><01><01><08>08131430<03><0B>022343-3657<04> VARFSKSEND <01>O<07><08>y.d.chen# DELAY 5 VARFSKCARRIER OFF DELAY 700 * Test DT5:FSK1:TP11 (Section 4.6) TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #15 (MSG WTG) WRITELCD2 DT5:FSK1:TP11 DELAY 500 DUALTONE 100 DELAY 200 SPACEFREQ 2100 MARKFREQ 1300 SPACELEVEL -18 MARKLEVEL -18 VARFSKSEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU VARFSKCARRIER ON DELAY 67 VARFSKSEND <80><03><11><01><81># DELAY 5 VARFSKCARRIER OFF DELAY 700 * Test DT5:FSK1:TP12 (Section 4.6) TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #16 (DETECT) WRITELCD2 DT5:FSK1:TP12 DELAY 500 DUALTONE 100 DELAY 200


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SPACEFREQ 2100 MARKFREQ 1300 SPACELEVEL -18 MARKLEVEL -18 VARFSKSEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU VARFSKCARRIER ON DELAY 67 VARFSKSEND <80><29><11><01><01><01><08>08131430<02><0A>08362-5234<03> VARFSKSEND <0B>022343-3657<08><01>P# DELAY 5 VARFSKCARRIER OFF DELAY 700 * Test DT5:FSK1:TP13 (Section 4.13) TONE1FREQ 2130 TONE2FREQ 2750 TONE1LEVEL -18 TONE2LEVEL -18 CLEARLCD WRITELCD1 TEST #17 (DETECT) WRITELCD2 DT5:FSK1:TP13 DELAY 500 DUALTONE 100 DELAY 200 SPACEFREQ 2100 MARKFREQ 1300 SPACELEVEL -18 MARKLEVEL -18 VARFSKSEND UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU VARFSKCARRIER ON DELAY 67 VARFSKSEND <80><4B><11><01><01><01><08>08131430<02><12>022343-3657-123456 VARFSKSEND <03><12>08362-5234-9876543<07><14>maximum<20>test<20>message# DELAY 5 VARFSKCARRIER OFF DELAY 700 ** DTMF TESTS CLEARLCD WRITELCD1 TAIWAN DGT WRITELCD2 DTMF CALLER ID TESTS DELAY 1000 CLEARLCD WRITELCD1 DTMF SIGNALING WRITELCD2 SECTION 5.4 DELAY 700 * Test DS1:TC1 (Section 5.4) CLEARLCD


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WRITELCD1 TEST #18 (DETECT) WRITELCD2 DS1:TC1 DELAY 500 LEVEL -13 TONE1LEVEL -13 TONE2LEVEL -13 SENDDTMF D00214567890123C 70 70 DELAY 1000 * Test DS2:TC1 (Section 5.4) CLEARLCD WRITELCD1 TEST #19 (DETECT) WRITELCD2 DS2:TC1 DELAY 500 TONE1LEVEL -24 * HIGH GROUP LEVEL TONE2LEVEL -29 * LOW GROUP LEVEL TONE1FREQ 1666 TONE2FREQ 960 DUALTONE 90 * D DELAY 90 TONE1FREQ 1363 TONE2FREQ 960 DUALTONE 90 * 0 DELAY 90 DUALTONE 90 * 0 DELAY 90 TONE1FREQ 1363 TONE2FREQ 711 DUALTONE 90 * 2 DELAY 90 TONE1FREQ 1233 TONE2FREQ 711 DUALTONE 90 * 1 DELAY 90 TONE1FREQ 1233 TONE2FREQ 785 DUALTONE 90 * 4 DELAY 90 TONE1FREQ 1363 DUALTONE 90 * 5 DELAY 90 TONE1FREQ 1507 DUALTONE 90 * 6 DELAY 90 TONE1FREQ 1233 TONE2FREQ 869 DUALTONE 90 * 7 DELAY 90


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TONE1FREQ 1363 DUALTONE 90 * 8 DELAY 90 TONE1FREQ 1507 DUALTONE 90 * 9 DELAY 90 TONE1FREQ 1363 TONE2FREQ 960 DUALTONE 90 * 0 DELAY 90 TONE1FREQ 1233 TONE2FREQ 711 DUALTONE 90 * 1 DELAY 90 TONE1FREQ 1363 DUALTONE 90 * 2 DELAY 90 TONE1FREQ 1507 DUALTONE 90 * 3 DELAY 90 TONE1FREQ 1666 TONE2FREQ 869 DUALTONE 90 * C DELAY 90 DELAY 1000 * Test DS3:TC1 (Section 5.4) CLEARLCD WRITELCD1 TEST #20 (REJECT) WRITELCD2 DS3:TC1 DELAY 500 TONE1LEVEL -24 * HIGH GROUP LEVEL TONE2LEVEL -29 * LOW GROUP LEVEL TONE1FREQ 1600 TONE2FREQ 922 DUALTONE 30 * D DELAY 30 TONE1FREQ 1309 TONE2FREQ 922 DUALTONE 30 * 0 DELAY 30 DUALTONE 30 * 0 DELAY 30 TONE1FREQ 1309 TONE2FREQ 683 DUALTONE 30 * 2 DELAY 30 TONE1FREQ 1185


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TONE2FREQ 683 DUALTONE 30 * 1 DELAY 30 TONE1FREQ 1185 TONE2FREQ 754 DUALTONE 30 * 4 DELAY 30 TONE1FREQ 1309 DUALTONE 30 * 5 DELAY 30 TONE1FREQ 1447 DUALTONE 30 * 6 DELAY 30 TONE1FREQ 1185 TONE2FREQ 835 DUALTONE 30 * 7 DELAY 30 TONE1FREQ 1309 DUALTONE 30 * 8 DELAY 30 TONE1FREQ 1447 DUALTONE 30 * 9 DELAY 30 TONE1FREQ 1309 TONE2FREQ 922 DUALTONE 30 * 0 DELAY 30 TONE1FREQ 1185 TONE2FREQ 683 DUALTONE 30 * 1 DELAY 30 TONE1FREQ 1309 DUALTONE 30 * 2 DELAY 30 TONE1FREQ 1447 DUALTONE 30 * 3 DELAY 30 TONE1FREQ 1600 TONE2FREQ 835 DUALTONE 30 * C DELAY 1000 * Test DS4:TC1 (Section 5.4) CLEARLCD WRITELCD1 TEST #21 (DETECT) WRITELCD2 DS4:TC1 DELAY 500 TONE1LEVEL -3 * HIGH GROUP LEVEL


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TONE2LEVEL -8 * LOW GROUP LEVEL TONE1FREQ 1666 TONE2FREQ 960 DUALTONE 90 * D DELAY 90 TONE1FREQ 1363 TONE2FREQ 960 DUALTONE 90 * 0 DELAY 90 DUALTONE 90 * 0 DELAY 90 TONE1FREQ 1363 TONE2FREQ 711 DUALTONE 90 * 2 DELAY 90 TONE1FREQ 1233 TONE2FREQ 711 DUALTONE 90 * 1 DELAY 90 TONE1FREQ 1233 TONE2FREQ 785 DUALTONE 90 * 4 DELAY 90 TONE1FREQ 1363 DUALTONE 90 * 5 DELAY 90 TONE1FREQ 1507 DUALTONE 90 * 6 DELAY 90 TONE1FREQ 1233 TONE2FREQ 869 DUALTONE 90 * 7 DELAY 90 TONE1FREQ 1363 DUALTONE 90 * 8 DELAY 90 TONE1FREQ 1507 DUALTONE 90 * 9 DELAY 90 TONE1FREQ 1363 TONE2FREQ 960 DUALTONE 90 * 0 DELAY 90 TONE1FREQ 1233 TONE2FREQ 711 DUALTONE 90 * 1 DELAY 90 TONE1FREQ 1363


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DUALTONE 90 * 2 DELAY 90 TONE1FREQ 1507 DUALTONE 90 * 3 DELAY 90 TONE1FREQ 1666 TONE2FREQ 869 DUALTONE 90 * C DELAY 1000 * Test DS5:TC1 (Section 5.4) CLEARLCD WRITELCD1 TEST #22 (DETECT) WRITELCD2 DS5:TC1 DELAY 500 TONE1LEVEL -3 * HIGH GROUP LEVEL TONE2LEVEL -8 * LOW GROUP LEVEL TONE1FREQ 1600 TONE2FREQ 922 DUALTONE 50 * D DELAY 50 TONE1FREQ 1309 TONE2FREQ 922 DUALTONE 50 * 0 DELAY 50 DUALTONE 50 * 0 DELAY 50 TONE1FREQ 1309 TONE2FREQ 683 DUALTONE 50 * 2 DELAY 50 TONE1FREQ 1185 TONE2FREQ 683 DUALTONE 50 * 1 DELAY 50 TONE1FREQ 1185 TONE2FREQ 754 DUALTONE 50 * 4 DELAY 50 TONE1FREQ 1309 DUALTONE 50 * 5 DELAY 50 TONE1FREQ 1447 DUALTONE 50 * 6 DELAY 50 TONE1FREQ 1185 TONE2FREQ 835 DUALTONE 50 * 7


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DELAY 50 TONE1FREQ 1309 DUALTONE 50 * 8 DELAY 50 TONE1FREQ 1447 DUALTONE 50 * 9 DELAY 50 TONE1FREQ 1309 TONE2FREQ 922 DUALTONE 50 * 0 DELAY 50 TONE1FREQ 1185 TONE2FREQ 683 DUALTONE 50 * 1 DELAY 50 TONE1FREQ 1309 DUALTONE 50 * 2 DELAY 50 TONE1FREQ 1447 DUALTONE 50 * 3 DELAY 50 TONE1FREQ 1600 TONE2FREQ 835 DUALTONE 50 * C DELAY 50 CLEARLCD WRITELCD1 END OF TESTS ** end of script


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TONES.SCR

* This example script demonstrates some network tones used in North America. SNR 48 * No Noise ************ * Dial tone ************ Display Dial Tone Test: (350 & 440 Hz at -20 dBm) Tone1freq 350 Tone2freq 440 Tone1Level 20 Tone2Level 20 DualTone 10000 * 10 Sec dial tone ******************************** * Message Waiting Indicator Tone ******************************** Display Message Waiting Indicator Tone Test: (350 & 440 Hz at -20 dBm) Tone1freq 350 Tone2freq 440 Tone1Level 20 Tone2Level 20 Loop 10 * 10 bursts of 0.1 sec ON, 0.1 Sec OFF DualTone 100 * 0.1 sec tone Delay 100 * 0.1 sec silence EndLoop DualTone 10000 * 10 Sec steady dial tone ************************************** * Recall Dial Tone / Confirmation Tone ************************************** Display Recall Dial Tone / Confirmation Tone Test: (350 & 440 Hz at -20 dBm) Tone1freq 350 Tone2freq 440 Tone1Level 20 Tone2Level 20 Loop 3 * 3 bursts of 0.1 sec ON 0.1 Sec OFF DualTone 100 * 0.1 sec tone Delay 100 * 0.1 sec silence


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EndLoop DualTone 10000 * 10 Sec steady dial tone *********** * Line Busy *********** Display Line Busy Tone Test: (480 & 620 Hz at -30 dBm) Tone1freq 480 Tone2freq 620 Tone1Level 30 Tone2Level 30 Loop 50 * 50 bursts of busy tone DualTone 500 * 0.5 sec tone Delay 500 * 0.5 sec silence EndLoop *************** * Re-Order Tone *************** Display Re-Order Tone Test: (480 & 620 Hz at -30 dBm) Tone1freq 480 Tone2freq 620 Tone1Level 30 Tone2Level 30 Loop 50 * 50 bursts of re-order tone DualTone 250 * 0.25 sec tone Delay 250 * 0.25 sec silence EndLoop ***************** * Audible Ringing ***************** Display Audible Ringing Test: (440 & 480 Hz at -30 dBm) Tone1freq 440 Tone2freq 480 Tone1Level 30 Tone2Level 30 Loop 4 * 4 rings DualTone 2000 * 2 sec ring ON Delay 4000 * 4 sec silence EndLoop ** End of Script


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UK_BT.SCR ** This script simulates the Calling Line Identification (CLI) signal ** defined in BT's SIN 227 specification for the United Kingdom. Critical ** timing parameters and signal levels are controllable. ** Initialization MODEM V23 * Select V23 FSK Modem LEVEL 20 * FSK level is -20 dBm SNR 30 * FSK Signal-to-Noise Ratio is 30 dB Tone1freq 2130 * Alert Tone frequency selection (2130Hz+2750Hz) Tone2freq 2750 Tone1Level 22 * Alert Tone amplitude selection (-22 dBm per tone) Tone2Level 22 ** Start of call sequence POLARITY REVERSE * Reverse the line polarity DELAY 150 * Wait 150 mS (should be >=100mS) Dualtone 100 * Alert signal ON (should be between 88 and 110 mS) DELAY 60 * Delay 60 mS (CPE must present DC wetting pulse here) STARTCLI * Start of CLI packet (Message Type 80Hex) message * and parameter definition DATETIME 11071530 *Date and time: Nov 7, 3:30pm CALLING 01202824698 *Calling number: 01202824698 CALLED 01202555789 *Called number: 01202555789 NAME JOE_DOE *Calling name: JOE_DOE ENDCLI * Calculate checksum and transmit FSK data DELAY 250 * Wait 250 mS after sending data POLARITY NORMAL * Restore normal polarity prior to start of ringing RING 400 * Ring: 400mS ON, 200mS OFF, 400mS ON DELAY 200 RING 400 ** End of script


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VAR_CAS.SCR ** This script allows the user to vary the level and frequency of CAS ** tone combinations. Tone1Freq 2130 * Default tone1 frequency Tone2Freq 2750 * Default tone2 frequency ** Test tones at various levels with no twist ** Dual tones are generated at -48/-48, -47/-47....-5/-5 dBm Tone1Level -48 * Tone1 starts at -48dBm Tone2Level -48 * Tone2 starts at -48dBm Loop 43 Dualtone 80 * Send tone1+tone2 for 80 mS Tone1Level + * Increase tone1 amplitude by 1 dB per loop Tone2Level + * Increase tone2 amplitude by 1 dB per loop Delay 1000 * Wait for one second EndLoop Delay 2000 ** Test tones at varying twist levels ** Dual tones generated are -48/-5, -47/-6, -46/-7...-5/-48 dBm Tone1Level -48 * Tone1 starts at -48dBm Tone2Level -5 * Tone2 starts at -5 dBm Loop 43 Dualtone 80 * Send tone1+tone2 for 80 mS Tone1Level + * Increase tone1 amplitude by 1 dB per loop Tone2Level - * Decrease tone2 amplitude by 1 dB per loop Delay 1000 * Wait for one second EndLoop Delay 2000 ** Generate 100 CAS tone combinations varying tone2 from 2750 to 2850Hz Tone1Level -20 * Set tone1 level to -20 dBm Tone2Level -20 * Set tone2 level to -20 dBm Tone1Freq 2130 Tone2Freq 2750 Loop 100 Dualtone 80 * Generate CAS tone for 80 mS Tone2Freq + * Increase the frequency of tone2 by 1Hz per loop Delay 1000


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EndLoop Delay 2000 ** Generate 100 CAS tone combinations by varying tone1 from 2130 down to 2030Hz Tone1Level -20 Tone2Level -20 Tone1Freq 2130 Tone2Freq 2750 Loop 100 Dualtone 80 * Generate CAS tone for 80 mS Tone1Freq - * Decrement tone1 by 1 Hz per loop Delay 1000 EndLoop Delay 2000 ** End of script


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VARFSK.SCR * This script allows the user to vary the baud rate, mark and space * frequencies and levels. LineCurrent 30 MODEM BELL202 LEVEL 20 SNR 40 RingLevel 55 RingFreq 20 FSKBaud 1200 *can go from 1000bps to 1400bps MarkFreq 1200 *can go from 1000 Hz to 1400 Hz SpaceFreq 2200 *can go from 2000 Hz to 2400 Hz MarkLevel 20 *can go from 1 dB to 48 dB SpaceLevel 14 *can go from 1 dB to 48dB ring delay 500 VarFskSend UUUUUUUUUUUUUUUUUUUUUUUUUUUUUU VarFskCarrier On delay 150 varfskSend <04><0F>050510305551234<F6> VarFskCarrier Off LineCurrent 10 * Sets the Line Current back to 10 mA ** End of Script

3500 User Guide ver22 User Guide ver22.pdfTelephone +1 512.339.8188 Facsimile (FAX) +1 512.339.1299...

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